c^ £ ' "*. A. <<>\ Bulletin of the ^%ZJ/ British Museum (Natural History) The Red Notebook of Charles Darwin Sandra Herbert (Editor) Historical series Vol 7 24 April 1980 The Bullei'm of the British Museum (Natural History), instituted in 1949, is issued in four scientific series. Botany, Entomology, Geology (incorporating Mineralogy) and Zoology, and an Historical series. Papers in the Bulletin are primarily the results of research carried out on the unique and ever-growing collections of the Museum, both by the scientific staff of the Museum and by specialists from elsewhere who make use of the Museum's resources. Many of the papers are works of reference that will remain indispensable for years to come. Parts are published at irregular intervals as they become ready, each is complete in itself, available separately, and individually priced. Volumes contain about 300 pages and are not necessarily completed within one calendar year. Subscriptions may be placed for one or more series. Subscriptions vary according to the contents of the Volume and are based on a forecast list of titles. As each Volume nears completion, subscribers are informed of the cost of the next Volume and invited to renew their subscriptions. Orders and enquiries should be sent to: Publications Sales, British Museum (Natural History), Cromwell Road, London SW7 5BD, England. World List abbreviation : Bull. Br. Mus. nat. Hist. (hist. Ser.) ©Trustees of the British Museum (Natural History), 1980 ISSN 0068-2306 Historical series British Museum (Natural History) Vol 7 l-164(Complete) Cromwell Road London SW7 5BD Issued 24 April 1980 '--' % THE RED NOTEBOOK OF CHARLES DARWIN Edited with an Introduction and Notes by SANDRA HERBERT University of Maryland, Baltimore County Baltimore, Maryland, 21228, U.S.A. British Museum (Natural History) London Bull. Br. Mm. nat. Hist. (hist. Ser.) 7:1-164 Issued 24 April 1980 © Trustees of the British Museum (Natural History), 1980 ISSN 0068-2306 Historical Scries Volume 7 (Complete): 1-164 Published by British Museum (Natural History) Cromwell Road, London SW7 5BD Set by William Clowes & Sons, Limited, London. C'olchester and Beccles Printed by Henry Ling Ltd., Dorchester To Sydney Smith Introduction Commonly used symbols and abbreviations code CR The Structure and Distribution of Coral Reefs (1842) Diary Charles Darwin's Diary of the Voyage of H. M.S. Beagle Edited from the MS by N. Barlow (1933) GSA Geological Observations on South America (1846) JR Journal of Researches ( 1 839) VI Geological Observations on the Volcanic Islands Visited during the Voyage of H.M.S. Beagle (1844) Editorial syitibols [ J Darwin's addition < > Darwin's cancellation Q J Editor's remark [...?] Uncertain reading I End of notebook page e Wholly or partly excised page The Red Notebook is one of a series of notebooks kept by Charles Darwin during and immediately following his service as naturalist to the 1831-1836 surveying voyage of H.M.S. Beagle. It forms part of the collection of Darwin manuscripts at Down House in Kent, Darwin's former home, and, since 1929, a museum in his honour. The notebook came to Down House by arrangement with the Darwin family following Sir George Buckston Browne's purchase of the house for use as a museum.' It is a well-made but otherwise ordinary pocket notebook, measuring (y^" x 3xf " (164 mm x 99 mm), leather bound with a metal latch, which still works, and, as the name suggests, red in colour, although the original brilliance has faded. The leather cover is embossed with a border design on both sides. The front cover of the notebook bears the initials 'R.N.', written on a rectangular piece of white paper. On the back cover is pasted a similar piece of paper with the identical initials and the additional phrase 'Range of Sharks', referring to an entry within the notebook. There is also an ominous epigram written in larger letters across the back of the notebook: 'Nothing For any Purpose'. All of these inscriptions are written in brown ink in Darwin's handwriting. The pages of the notebook are of good quality paper, chain lined, and cut from stock bearing a 'T. Warren 1830' watermark. There are ninety leaves in the notebook or, in Darwin's occasionally irregular numbering, one hundred and eighty-one pages. Counting fractionally excised pages as half pages, seventy-five pages, or just over 41 per cent of the total, do not now appear in the bound notebook. All but twelve of these excised pages have been identified from among the general holdings of Darwin papers at Cambridge University Library.^ In addition to the large number of excised pages, two other features of the notebook are worthy of notice with respect to its physical appearance. First, most entries are scored through with a single vertical line. Such scorings are common among Darwin manuscripts and were an indication to himself that he had made use of the material. Second, the notebook as a whole divides neatly into two parts on the basis of the medium in which the majority of entries were written and with respect to the direction in which they were written on the page. Up to page 1 13, entries are in pencil, except for a few later additions, and are written along the vertical of the page, that is, running across its narrower dimension. In contrast, from page 113 on, the majority of entries are in brown ink rather than pencil and are written across the horizontal of the page. The obvious difference in appearance between the two parts of the notebook has a commonplace explanation. In appearance the first part of the Red Notebook resembles Darwin's field notebooks from the voyage, the second part the majority of notebooks kept after the voyage. Entries in notebooks from the voyage were typically made in pencil and written on the vertical of the page. In the field, pencil is obviously superior to pen and ink for writing. Also, for most right-handed people, a hand-held pocket- sized notebook is more easily written in when held vertically in the left hand, the palm of the left hand supporting the entire page, than when held horizontally, which leaves the right-hand edge of the page without support. Thus, so long as he was travelling, SANDRA HERBERT Darwin wrote in pencil with the notebook held vertically. Once back in England, however, Darwin wrote while sitting at a desk and used pen and ink as well as pencil. At home he found it easier to write horizontally across the page. This explanation for the difference in appearance between the two parts of the notebook is borne out if an attempt is made to date the notebook on the basis of content. Fortunately the first part of the notebook can be dated with some confidence on the basis of places named in the text. The first part of the notebook yields a perfect progression of place names corresponding to points visited by the Beagle from late May to the end of September 1836. The Beagle arrived at the Cape of Good Hope on 31 May 1836 and departed 18 June; page 15 of the Red Notebook contains the entry 'off Cape of Good Hope 70 fathoms 20 miles from the shore', and page 32 mentions the names of two prominent English residents of Cape Town, Sir John Herschel and Dr Andrew Smith. Page 38 refers to similar detail for St Helena, the Beagle's port from 8-14 July. Later in the notebook, on page 45, reference is made to Ascension Island which the Beagle visited from 19-23 July, and on page 77 a reminder is given to 'Mem. Ascension'. On page 94 Darwin wrote "I now having seen Pernambuco" which he visited from 12-17 August. Continuing this series, page 99 mentions the Cape Verde Islands, a port for the Beagle from 3 1 August-5 September. Finally, page 107 refers to the Azores where the Beagle stopped for mail on 25 September, eight days before anchoring at Falmouth. On 2 October 1836 Darwin departed the Beagle at Falmouth for his home in Shrewsbury. Exact dates for the second part of the Red Notebook are harder to determine. With no written itinerary available, one must look to different types of evidence. One useful guide for dating pages 113-181 are the names of individuals Darwin cited in his entries. Chiefly they are of scientific men active in London, most of whom Darwin had not met before returning to England. Thus on page 113, the first extant page in the second part of the notebook, Darwin referred to consultations with Richard Owen, then a young anatomist working at the Royal College of Surgeons, later the first Superintendent of the Natural History Museum in South Kensington. Since Darwin first met Owen in October 1836, the month Darwin returned to England, entries from page 113 on in the notebook are post-voyage in date.^ Reference on subsequent pages to other London men — among them geologists Roderick Murchison and Charles Lyell, the geographer Sir Woodbine Parish, and the conchologist James de Carle Sowerby — substantiates this view. Further, the impact that these London men had on Darwin's work from the voyage provides evidence for dating certain passages. For example, at the end of January 1837 Richard Owen provided identifications of a number of Darwin's fossil mammal specimens from South America to Charles Lyell for inclusion in his presidential address of 17 February 1837 to the Geological Society of London.^ Among the specimens which Owen identified was a llama-like animal, the Macrauchenia patachonica. This specimen figured prominently in the Red Notebook since the 'extinct Llama' referred to on page 129 was in fact the Macrauchenia. As the llama-like character of this specimen was unknown before Owen examined it, the INTRODUCTION entry on page 129 of the Red Notebook must have been written after the end of January 1837. How long after can best be determined by considering the context in which Darwin's remarks on the Macrauchenia were made. To do so it is necessary to consider Darwin's remarks on species in the second part of the Red Notebook as a unit. The whole run of entries on species in the second part of the Red Notebook is important for the limited purpose of dating specific passages, such as those referring to the Macrauchenia. It is also essential for the larger purpose of establishing a date for Darwin's arrival at a belief in the mutability of species. On this last point it should be stated that while Darwin's observations during the Beagle voyage were fundamental to his work on evolution, his notes from the voyage do not reveal him to have been an evolutionist. He was at the stage of asking basic questions.^ It should also be stated that there has previously been no fully satisfying evidence to document Darwin's own claim that he began to form his views on the species question in 'about' March 1837.^ Undoubtedly the chief significance of the Red Notebook is that it provides such evidence. In the Red Notebook are found explicit indications that Darwin was ready to assert the possibility that "... one species does change into another ..." (Red Note- book, p. 130). Equally important, Darwin's remarks on the species question in the second part of the notebook are sufficiently extended to allow one to characterize his position in some detail. Darwin's remarks on species in the second part of the notebook are directed towards three general topics: the geographical distribution of species, a comparison between the distribution of species through time and through space, and the gener- ation of individuals and species. The central theoretical notion to emerge with respect to geographical distribution is that ot the 'representation of species' (p. 130), or what Darwin referred to in his autobiography as 'the manner in which closely allied animals replace one another in proceeding southwards over the [South .American] Conti- nent...'.'' From this notion Darwin drew the tentative conclusion that such rep- resentative species as (to take his example) the two South .-\merican rheas had descended from a common parent (p. 153e). It is important to point out that in drawing this conclusion, Darwin chose to avoid a Lamarckian understanding of the bounding of species.^ For Lamarck, species graded indistinguishably into one another. In contrast, Darwin perceived differences between even the most closely related species, a perception captured by his notion of representative species and confirmed by the judgements of taxonomic authorities.^ The word he employed to describe this situation was 'inosculation', a medical term referring to the joining of one blood vessel to another. Because he saw species inosculating rather than grading into one another, Darwin believed at the time he wrote this entry that species change, or transmutation, must be produced 'at one blow' (p. 217), or 'per saltum' (p. 130). Transmutation and representative species aside, however, there are other statements in the notebook which bear on Darwin's more general understanding of the identity of species as correlated with geographical location and range. One such passage argues that 'new creations' of species are independent of the size of the land area inhabited by the SANDRA HERBERT species (p. 127). Other statements challenge by way of example the notion that climate entirely determines the distribution of species (pp. 128, 134e) or that species are perfectly adapted to a particular set of physical circumstances (pp. 129, 133). Behind such statements lie broad questions concerning the relation of the history of the earth to the history of life. Yet in these passages the tentative and empirical nature of Darwin's inquiries is paramount. The second topic of interest with respect to the species question in the Red Notebook is the analogy Darwin drew between the distribution of species over space and over time. Darwin's statement reads: "The same kind of relation that common ostrich bears to (Petisse, & diff kinds of Fourmillier): extinct Guanaco to recent: in former case position, in latter time, (or changes consequent on lapse) being the relation. — "(p. 130) If we can simplify this statement by omitting the phrase 'diflF kinds of Fourmillier' (on this see footnote 154 to the text), we have the following proportion: the common rhea stands to the lesser rhea as the 'extinct Guanaco' stands to the present-day guanaco. (The common rhea is Rhea americana, the lesser rhea the R/iea darwinii [Pterocnemia pennata]. [See note 149 to the text.] The extinct Guanaco is Macranchenia patackonica, the animal identified by Richard Owen; the present-day guanaco is Lama guanicoe. [See note 152 to the text.]) The first ratio, between the rheas, was based on spatial succession, the geographical ranges of the two birds being contiguous. The second ratio, between the Macrauchenia and the guanaco, involved temporal succession, although the exact nature of the succession is not speci- fied in the text. The common element binding the two ratios derives from the fact that both involved the replacement of one species by an allied species. Moreover, in context it is clear that replacement implied transmutation, for immediately upon asserting an analogy between spatial and temporal succession, Darwin referred to species changing. In doing so Darwin returned to a point we have noted earlier, namely his belief that allied species do not grade into each other. The Macrauchenia (or its cousin) must have 'inosculated' into the present-day guanaco, just as one rhea ' inosculated ' into the other. For Darwin this ruled out the Lamarckian notion that one species gradually changed into another in response to 'degenerating circum- stances' as might be caused, for example, by a gradual change in climate. However, even if Darwin did not embrace a Lamarckian mechanism for species change, he did share Lamarck's conclusion that present-day species were descended from earlier related forms. k third topic taken up in the Red Notebook with general relevance for the species question was generation, or, in modern terms, reproduction. In the notebook Darwin dealt briefly with the particular issue of how he might regard individuation as occurring in the zoophytes, a now-abandoned grouping of plant-like animals whose most familiar representatives are the corals. (Red Notebook, p. 130) The technical nature of zoophyte generation was not Darwin's primary concern. He was chiefly concerned to see where zoophyte generation might fit in the general analogy he was drawing between the generation of species and the generation of individuals. The chief INTRODUCTION advantage of the analogy was that it gave Darwin an alternative to environmental explanations for the origin and extinction of species. Thus, on p. 129: "Should urge that extinct Llama owed its death not to change of circumstances; reversed argument, knowing it to be a desert. — Tempted to believe animals created for a definite time: — not extinguished by change of circumstances: ..." Approached in this manner, "There is no more wonder in extinction of species than of individual. — " (p. 133) Although the claim is not made explicitly in this notebook, Darwin presumed that the comple- mentary relationship might also hold, that the birth of new species might be under- stood by analogy to the birth of individuals. Such are the major questions concerning species which Darwin addressed in the Red Notebook: geographical distribution, the relation between the spatial and temporal distribution of species, and generation. But can the passages in which these topics are discussed be dated to ' about ' March 1837 ? Three kinds of evidence suggest they can. First there is the direct evidence from the notebook itself. As has already been mentioned, the second part of the notebook is post-voyage in date and references to the 'extinct Llama' and 'extinct Guanaco' on pages 129-130 derive from Richard Owen's work of January 1837. The important passages on species on pages 129-130, and very probably the whole run of remarks on species from pages 127-133, therefore date from January 1837 at the earliest. Equally important, other datable entries in the notebook are consistent with a March 1837 dating for pages 127-133. These entries include: (i) a reference on page 143e of the notebook to the 29 April 1837 issue of the weekly journal the AthetKeiim, and (ii) a reference on page 178 to the subject matter of conversations Darwin was having with the botanist Robert Brown in April and early May 1837.'° (Since the entry on page 178 is the last datable one in the notebook, it also provides an approximate closing date for the notebook of May 1837.) The second source of support for a March 1837 dating of the main run of entries on species is the positive, although incomplete, correlation between the contents of these entries and Darwin's description of his original insight into the species question where he wrote that he "Had been greatly struck from about month of previous March on character of S. American fossils — & species on Galapagos Archipelago. These facts origin (especially latter) of all my views."'' By the phrase 'character of S. American fossils' Darwin undoubtedly had in mind the similarity between past and present South American forms. '^ The relationship between the Macrmichenia and the guanaco which figures so largely in the Red Notebook was of this sort. Thus, on the point pertaining to South American fossils, the correspondence between the Red Notebook and Darwin's 'Journal' entries is exact. With respect to Galapagos species the correspondence is less revealing, for Galapagos species are not mentioned directly in the notebook. It may be that Darwin had in mind the Galapagos mockingbirds when he referred to the 'Calandria' or South .American mockingbirds.'^ However, this is uncertain. On the evidence therefore, the correlation between the Red Note- book and Darwin's description of his insights of March 1837 is positive although incomplete. 10 SANDR.i\ HERBERT The third line of evidence joining the Red Notebook to Darwin's insights of March 1837 derives from a comparison between the passages on species in the note- book with those in the opening pages of a notebook, labelled 'B', begun in July 1837.'^ In general, Notebook B carries forward discussions on species begun in the Red Notebook. Identical elements appear in Notebook B as in the Red Notebook but they are handled with greater assurance and, in certain cases, with the addition of new material. Compare, for example, the opening sentence on page 130 of the Red Note- book with the statement on pages 16-17 of Notebook B: "I look at two Ostriches as strong argument of possibility of such change ; as we see them in space, so might they in time. — " Similarly, the notion of representative species reappears in Notebook B, although now in conjunction with the idea of isolation as a mechanism for species change. A series of entries on pages 7-10 of Notebook B reads as follows: Let a pair be introduced and increase slowly, from many enemies, so as often to intermarry — who will dare say what result. According to this view animals on separate islands, ought to become different if kept long enough apart, with slightly differ[ent] circumstances. — Now Galapagos tortoises, mocking birds, Falkland fox, Chiloe fox. — English and Irish Hare. — As we thus believe species vary, in changing climate we ought to find representative species; this we do in South America closely approaching. — But as they inosculate, we must suppose the change is effected at once, something like a variety produced — every grade in that case [it] seems is not produced? — If species (1) may be derived from form (2) etc., — then (remember- ing Lyell's arguments of transportal) island near continents might have some species same as nearest land, which were late arrivals, others old ones (of which none of same kind had in interval arrived) might have grown altered. Hence the type would be of the continent, though species all different. — The greater sophistication of this treatment of the notion of representative species — its ennumeration of examples, discussion of the transportal of species, and indication of isolation as a mechanism for change — suggests that it postdates the passages on species in the Red Notebook. It is therefore reasonable to conclude that Darwin made his entries on the species question in the Red Notebook before he opened Notebook B — that is, some time before July 1837.^^ Evidence for dating the important run of entries on pages 127-133 of the Red Notebook can now be summarized. As already mentioned, the dependence of some entries in that series on Richard Owen's work of January 1837 makes that the earliest possible date for the series taken as a whole, while the existence of Notebook B INTRODUCTION 11 suggests July 1837 as the latest possible date for the entries. Thus, the entries must have been written during the six months from late January to early July 1837. At this point it becomes relevant to weigh the author's own word carefully, for in the absence of any evidence to the contrary it provides the best reason to assign these passages to one month rather than another in this period. Overall, in Darwin's characterization of this period, the month of March stands out, for it was then that he claimed to have come to his new view of species. Since the passages in question from the Red Notebook are clearly transmutationist, it is plausible to assign them that date. Contributing evidence from the notebook — the rough correspondence of the insights Darwin described having in March 1837 with the passages from the notebook, and the compatibility of two dates further on in the notebook (the reference on page 143e to the 29 April 1837 issue of the Athenteum and the reference on page 178 to activities of April and early May 1837) with a March dating for pages 127-133 — supports this conclusion. The run of entries on the species question in the Red Notebook should therefore be assigned, however loosely, to March 1837. To this dating two qualifi- cations must be stressed : that Darwin himself was tentative in dating the origin of his new views (to 'about' March) and that it is more than likely that various entries were written at scattered times. Yet, on balance, the evidence supports an approximate dating of March 1837 for the entries on pages 127-133 of the Red Notebook. The obvious next question is: why March .' Fortunately, if one takes the passages on species in the Red Notebook to coincide with the origin of Darwin's new views that question can be answered, for insofar as passages on transmutation in the note- book depend on new information unavailable to Darwin before March 1837, they depend on the identification of specimens from his collection by London zoologists.^® These identifications were of two kinds: (i) identifications of specimens of unknown character and (ii) the marking off and naming of good species. The utility of expert opinion is obvious in the first case, as, for example, where Richard Owen's knowledge of comparative anatomy enabled him to identify fossil specimens where Darwin could not. The utility of expert opinion in the second case was less obvious, for the naming and marking off of species entailed considerable judgement on the part of the taxonomist. Yet while the process of species definition was in part arbitrary it was not anarchic. What ordered the process was the existence of recognized arbiters, or, in a word, specialists. The concept 'species' was in fact defined by such men as John Gould and Richard Owen as they went about their daily work. It was their office, not Darwin's, to name his specimens. Hence what one finds in the Red Notebook (despite its retention of common names for species) are traces of Darwin's reflections on his own initial observations in the field as these observations were ratified or extended by professional judgements on various specimens. One can see the effect of professional judgement in the insights he recalled as central to his new views. His first insight pertained to the temporal succession of similar species in the same locality. In Darwin's autobiography he cited the glyptodon-armadillo relationship to this end;''' in the Red Notebook it is the Macrauchenia-Uama replacement which figures. 12 SANDRA HERBERT Although the final word on the fossil mammals came from Richard Owen in both cases, Darwin's dependence on professional judgement is more obvious in the case of the Macrauchenia, for, unlike the glyptodon-armadillo relationship, Darwin had not formed any judgement of his own on the specimen before learning Owen's opinion. Professional judgement was equally important to Darwin's second insight respecting "species on Galapagos archipelago".^" In a key passage in his Ornitho- logical Notes, written before specialists had examined his collection, Darwin recorded his suspicion that the various Galapagos mockingbirds were "only varieties" since they differed very slightly from one another and "filled the same place in Nature ".^^ The phrase "only varieties" is significant in this context since naturalists traditionally used the term 'variety' to indicate groups which had been subject to some departure from type. When John Gould declared that the mockingbirds comprised three good species, Darwin could the more easily believe that the "stability of Species" had been undermined. Further, Darwin was then free to consider geographical isolation as a vehicle for species change. John Gould's recognition of a species-level distinction between the two rheas was a similar case; it invited the speculations on pages 127 and 130 of the Red Notebook. Without Gould's judgements Darwin could not have proceeded as he did, and, conversely, everything Darwin later did referred back in some way to these early professional opinions for support. Indeed in his formal presentation of his Beagle material Darwin took pains to emphasize that professional judgement must be relied on. Speaking of the Galapagos mockingbirds in particular he wrote : I may observe, that [if] some naturalists may be inclined to attribute these differences to local varieties. . .then the experience of all the best ornithologists must be given up, and whole genera must be blended into species.^'' The significance of a March 1837 date for the origin of Darwin's new views on species thus derives from his reception at that time of the views of recognized zoologists with respect to key specimens from his collection. In itself this is logical enough since for Darwin to attempt an answer to the species question he had first to understand what his colleagues meant by a species in relation to his own collections. We can now return to consider the notebook as a whole. As already mentioned, Darwin opened the notebook in May or June 1836. From internal evidence, namely the reference on page 143e to the 20 April 1837 issue of the Athenaum and the reference on page 178 to the subject matter of conversations Darwin was having with Robert Brown in April and May 1837, the inference can be drawn that the notebook was completed by May 1837 at the earliest. More cautiously one might wish to set the closing date at June 1837. In either case the Red Notebook was in use for something like a year. Clearly it was an important year, spanning the closing months of the voyage and the first eight or nine months back in England. It was also a year of transition, the change from one way of life to another being reflected in the pages of INTRODUCTION 13 the notebook. Indeed, the notebook itself served partly as an instrument of adjustment to the return, for Darwin used the first part of it to plan for future publications. Scattered throughout the first part of the notebook are reminders to himself respecting his writing: 'note in Coral Paper' (page 30), 'Introduce part of the above in Patagonia paper; & part in grand discussion' (page 49), 'In Rio paper. . .' (page 65), 'In my Cleavage paper. . .' (page 101), and so on. The term 'paper' applies here to various units of Darwin's geological writings from the voyage. Darwin also used the term in that sense when he wrote to J. S. Henslow shortly after arriving home, "There is not another soul, whom I could ask, excepting yourself, to wade through & criticize [those del] some of those papers which I have left with you. — "^' One paper mentioned in the Red Notebook and presumably shown to Henslow (as well as Charles Lyell) was the 'Coral Paper'. The original draft of this manuscript, written in 1835, formed the basis for Darwin's presentation on 31 May 1837 to the Geological Society of London, and, later, for the first part of the published geology from the Beagle voyage. ^^ While the histories of the other papers referred to in the Red Notebook are not as straight- forward, Darwin's intent for them was likely the same. In addition to short pieces on individual topics, Darwin also intended to write a large-scale work on the geology of South America. In 1846 Darwin realized his ambition for this 'grand discussion' of South American geology with the publication of the third part of the geology of the voyage of the Beagle.^^ Entries in the Red Notebook were also directed to the furtherance of another publishing project: the Journal of Researches, Darwin's narrative of the 1831-1836 voyage of the H.M.S. Beagle.'^'^ While the ' Diary '^^ Darwin kept during the voyage furnished the basic narrative for his Journal, he included two additional kinds of material in the published work. They included references to the work of previous travellers and brief summaries of his own scientific researches. Frequently the Red Notebook was used in compiling citations of the first kind, as is evidenced by the transfer of citations from the Red Notebook to the Journal of Researches. Less often, but at several points most strikingly, the Red Notebook also served as an instrument for recording scientific speculations. These too passed to the Journal although, because of the organization of the work, rather unobtrusively.^^ In any case, it is clear on inspection that the Red Notebook served Darwin in writing the Journal of Researches. The Red Notebook is thus transitional in that a number of its entries are directed towards future publications. It is also transitional in that it marks a change in the use to which Darwin put pocket-sized notebooks. While on the voyage Darwin used notebooks for recording field observations. As a result, notebook entries from the voyage are primarily observational and often not in sentence form. In contrast, most other work from the voyage, including reading notes and the finished version of daily observations, with their 'theories', 'conjectures' and 'hypotheses' (Darwin used all these terms) was written out in good sentence form on larger sized paper. ^" The Red Notebook represents a departure from this pattern, for its entries are mixed. There 14 SANDRA HERBERT are still some field notes, but there are also reading notes (which are in fact sometimes notes on earlier reading notes — hence their telegraphic brevity), and, most importantly, also notes on 'theories', 'conjectures', and 'hypotheses'. After June 1837, when the Red Notebook was presumably filled, Darwin began new notebooks where the presence of theoretical inquiries became even more marked. Indeed, if one takes all of Darwin's notebooks from the Beagle and immediately post-Beagle periods together, one can see a shift from observation to theory in the notebooks, with the Red Notebook occupying a mid-way position. This change can be summarized as follows: DESCRIPTIVE NOTEBOOKS^^ ^ POST-VOYAGE FROM THE VOYAGE — *► "tD f^^TEBOUK. — »> ^^^Q^g^lj.^^ NOTEBOOKS The change is, however, less dramatic than is suggested by this scheme, for all the notebooks show some degree of mixture in their entries; yet as an overall shift it is clear.^^ Accompanying this shift there was also a parallel change in Darwin's labelling of his notebooks. Field notebooks were labelled in a straightforward manner according to the names of the places visited. ¥ost-Beagle theoretical notebooks were labelled alphabetically, presumably in deference to the abstract nature of their contents. Again the Red Notebook stood between these two groups. Its label, 'R.N.', provided no clue to its contents, and its name, the Red Notebook, merely described its physical appearance. In all likelihood the notebook went without a name until Darwin had reason to refer back to it after it was completed. ^^ This would not seem to indicate any lack of regard on Darwin's part for the notebook, for indeed it was a pivotal notebook in several respects, but rather its unique standing among his notebooks. Once the Red Notebook was filled, Darwin reorganized his method of taking notes. Where the Red Notebook contained entries on all subjects of interest, subsequent notebooks were more restricted in content. In place of the Red Notebook Darwin opened two new notebooks, one devoted to geology which he labelled 'A'.^° At about the same time Darwin opened a second notebook, ' B ', already mentioned, which he devoted to questions pertaining to the mutability of species. The generative relation- ship between the Red Notebook and Notebooks A and B is suggested by Figure 1. NOTEBOOK A RED NOTEBOOK (geology) NOTEBOOK B FiGiniE 1 (ipecies) While it is beyond the scope of this introduction to describe Notebooks A and B in detail, they can be compared to the Red Notebook with respect to content. On the geological side Darwin considered a wide range of subjects in the Red Notebook. As INTRODUCTION 15 might be expected from a notebook stimulated by field work, the largest number of geological entries in the Red Notebook pertained to specific formations and rock types. However, nearly as large in number were entries pertaining to the elevation and subsidence of the earth's crust — a subject in which Darwin was keenly interested — and what were for Darwin the attendant issues of the form of the earth — that is its shape and interior structure — and such patterns of disturbance in the earth's crust as were indicated by the occurrence of earthquakes and the presence of volcanoes and mountain chains. In addition to these major themes Darwin also made notes on other geological topics in the Red Notebook, among them the distribution of metallic veins, the preservation of fossils, erratic blocks, and life at the bottom of the sea. Equally noteworthy as the range of geological subjects considered in the Red Notebook is the enthusiasm with which they are treated, particularly those of a theoretical nature, indeed, Darwin's ambition as a theoretical geologist surfaced at several points in the notebooks; see, for example, the passage on pages 72-73 (see p. 51) beginning with the phrase, "Geology of whole world will turn out simple. — " Such passages must, of course, be read in context, and in this instance the context was provided by the Lyellian reconstruction of geology then in progress. ^^ Reflecting Darwin's enthusiasm for large theoretical issues. Notebook A follows the lead of the Red Notebook with regard to geology. For example, there is in the two notebooks a continuing interest in vertical movements of the earth's crust and an overlapping range of topics generally. Yet there are some differences between the two notebooks. Notebook A has fewer field notes than does the Red Notebook, and indeed the major piece of geological field research Darwin did in the 1837-1839 period he recorded in another notebook. ^^ Also, Notebook A draws on contemporary journal literature far more than does the Red Notebook, for the obvious reason that Darwin had access to such literature only after his return to England. Another difference between the two notebooks is their relative value as documents for interpreting Darwin's geological views for the period when each was kept. In this respect the Red Notebook is the more revealing document. Yet the lesser import of Notebook A is not due to a declining interest in geology on Darwin's part during the 1837-1839 period. Indeed, in this time Darwin published seven papers on geological topics. ^^ Two of these papers, that on the formation of mould and that on the 'parallel roads' of Glen Roy in Scotland, involved new field research. Further, during this same period Darwin continued working on his 'grand discussion' of South American geology, and on his studies of coral reefs and volcanic islands.^* However, in quantity and substance Notebook A represents only a small portion, a sampler, of Darwin's geological work during the period, and for that reason it is less essential to interpreting Darwin's early geological views than is the Red Notebook. In contrast, Notebook B and its successors represent the bulk of Darwin's theoret- ical work on the species question during the period when they were kept and are there- fore essential in understanding his intellectual development. As is well known, Darwin did not publish his new views on species immediately upon their inception, being well 16 SANDRA HERBERT aware of the generally critical attitude of his scientific colleagues towards theories asserting the mutability of species.^^ However, from the spring of 1837 on, Darwin himself was convinced of the merits of the transmutationist case and chose to pursue the subject in private without the explicit knowledge or direct support of his colleagues. In Notebook B, begun in July 1837, Darwin continued the inquiries on species begun in the Red Notebook. Once filled. Notebook B gave way to Notebooks C, D, and E, and to at least one other notebook known only from fragments. ^^ By the close of Notebook C, however, Darwin's search for an explanation for adaptation had focused on the subject of behaviour, and he opened a new set of notebooks, labelled M and N, devoted in large part to the study of behaviour.^'' Like his predecessor and fellow transmutationist Jean Baptiste Lamarck, Darwin suspected that adaptive change at least in some instances might occur first in the behaviour of the organism, and Notebook M was opened with this hypothesis in mind. For the period July 1838- July 1839, Darwin was thus pursuing three related but distinguishable lines of inquiry. ^^ Expressed schematically, his theoretical notebooks, which represent these lines of inquiry, developed from each other during the period from 1836-1839 as indicated in Figure 2. It is of course possible, even probable, that other notebooks from the post-Beagle period await discovery and reconstruction, and that new dimensions to Darwin's work will emerge from a study of these manuscripts. Certainly within the last twenty years scholars have identified a large body of evidence which considerably illuminates the course of Darwin's labours. ^^ The Red Notebook now forms part of that evidence. It stands at the beginning of that chain of events which led from Darwin's assertion of a belief in the mutability of species through his arrival at the notion of natural selection and then, after twenty years and by way of several drafts, to the publication in 1859 of the Origin of Species.'^" For that alone the Red Notebook is important. Moreover, apart from its place in the sequence of developments which led to the Origin, the Red Notebook has intrinsic merit. For example, the combination of geological, zoological, and botanical entries in the notebook is in itself important as reflecting the broad knowledge of nineteenth-century naturalists. The notebook also records much about the daily circumstances under which Darwin worked. His access to a large body of scientific and travel literature is apparent from the notebook and contradicts a common impression that he worked from only a handful of books while aboard ship. Further, the brilliance of the company Darwin kept on his return to England suggests his position, even early in his career, within one of the most influential circles of English science. Yet, and here the common view is confirmed rather than denied, Darwin's frequent mention of the names of Alexander von Humboldt and Charles Lyell substantiates his repeated references in later life to their influence on his early career. In sum the Red Notebook provides the means not only for documenting Darwin's early belief in transmutation and gauging the extent of his geological ambitions, but also for illustrating his passage from H.M.S. Beagle to the world of professional science. INTRODUCTION 17 1836 1837 1838 1839 J FMAMJ JASOND J FMAMJ JASONDJ FMAMJ J ASONDJ FMAMJ JA Figure 2. Eight Darwin notebooks kept during 1836-1839. Solid lines represent the notebooks, dotted lines uncertainties in dating, and broken lines divisions of subject matter among members of the set. Editorial Considerations In this edition I have intended to offer a literal transcription of the text while keeping editorial intrusions to a minimum. ''^ I omitted or altered only certain obvious features of the manuscript. First, I have ignored the single-line vertical scoring which runs through most of the entries; Darwin scored his notes in this fashion when he had no further use for them. Second, I have signalled all announced changes in subject by paragraphing. In the notebook such changes are characteristically marked by a horizontal line between entries or, less frequently, by the start of a new page, rather than by paragraphing; third, except for insertions and interHneations, I have not 18 SANDR.\ HERBERT indicated anything concerningplacement of entries on the page;fourth, I have recorded the medium in which entries were written only in certain instances. In particular, up to page 113, where the original text is in pencil, I have noted those entries which are written in ink. After page 113, where the text contains both penned and pencilled entries, I have noted only those entries written in a distinctive light brown ink, which, like the penned entries in the first part of the notebook, were clearly added some time after the main text was complete. Fifth, and finally, only Darwin's text has been reproduced. The notations in other handwriting which appear in the notebook, namely the catalogue number of the notebook and some faint remains of what may have originally been a price mark, are not included in the transcription. I have retained the other complexities of the text. Cancellations are kept where they are legible and are indicated by being enclosed in angled brackets. Those few cancellations which are omitted as illegible are mainly single letters whose identity is obscured by the cancellation mark. Darwin's alterations to the text, which include careted remarks, interlineations, and later additions, are enclosed in slanted brackets. I have not assigned dates to these alterations. Some were roughly contemporary with the original text; others, such as those in light brown ink, were made considerably later. Without surveying all of Darwin's writings from the post-Beagle period, it would be speculative to assign even approximate dates to all of the additions. In spelling I have reproduced Darwin's words exactly as written where the individual letters are clearly formed. Where individual letters are indistinct, as is often the case, I have offered the probable reading of the word without comment. 'Rememb[?]g' on page 72 thus appears simply as 'remembering'. Where the reading is conjectural I have placed it within square brackets and indicated my uncertainty by a question mark. In orthography I have preserved all of Darwin's forms, except for the long 's', which I have modernized silently. In capitalization I have reproduced Darwin's usage where it is clear. Where it is unclear I have followed modern con- ventions. Representation of punctuation is a more serious problem, partly because nineteenth-century practice differed considerably from our own. As R. C. Stauffer has pointed out, Darwin followed a system similar to that suggested in Lindley Murray's English Grammar. '^'^ In that system commas, semicolons, colons, and periods indicate increasingly longer pauses more than they distinguish different constructions. Thus, Darwin might use a colon where a semicolon would now be employed. I have not altered his practice in this regard, which the reader should bear in mind. The representation of punctuation is also problematical since punctuation marks are by nature small and easily confused with stray marks on the page, or with pen rests. Rather than probe Darwin's intentions in this regard, I have reproduced all traditional marks of punctuation which appear within the text. Equally, I have not added punctuation where there is none. It is left to the reader, understanding the nature of the document, to tolerate inconsistencies in punctuation. As for references I have provided footnotes on all persons named in the text. Further information on the majority of these persons can be obtained from standard INTRODUCTION 19 biographical dictionaries. Particularly useful in this regard are the Dictionary of National Biography (65 vols, plus supplements; London, 1885-1900, 1901-) and the Dictionary of Scientific Biography (15 vols.; New York, 1970-1978). Other points I have footnoted as it seemed appropriate. I have identified or provided co-ordinates to place names only where they were not to be found in standard atlases or in Darwin's publications stemming from the voyage. In some notes I have offered cross-references to various early works of Darwin, but I have not attempted to supply a concordance between the Red Notebook and Darwin's published writings. In citing Darwin's publications I have relied primarily on R. B. Freeman, The Works of Charles Darwin: An Annotated Bibliographical Handlist (2nd ed.; London, 1977). Generally, in citing books in the notes, I have shortened titles; full titles are given in the bibliography. Journal titles are cited in full in both places. In the notes, unless otherwise stated, I have cited the edition of a work Darwin used if one could be determined from his citation. In many cases I was able to cite from Darwin's own copy of the work. Darwin's personal library is presently divided between Down House and the Cam- bridge University Library. The general catalogue of his library is H. W. Rutherford, Catalogue of the Library of Charles Darwin now in the Botany School, Cambridge (Cambridge, 1908). Those books presently at Cambridge LIniversity Library are described in a mimeographed pamphlet distributed by the Library entitled Darwin Library: List of books received in the Universitv Library Cambridge, March-May 1961. Darwin's collection of scientific reprints is also presently housed at Cambridge University Library. Acknowledgements I would like to thank the present owners of Down House, the Royal College of Surgeons of England, and particularly the Secretary of the College, R. S. Johnson- Gilbert, for permission to publish the Red Notebook; the Syndics of Cambridge University Library for permission to publish excised pages from the notebook; and the Darwin family, as represented by George Pember Darwin, for their consent to the publication of the Notebook. I would also like to thank Jessie Dobson, former Curator of the Hunterian Museum, for arranging with the Royal College of Surgeons for permission to publish the Notebook. At Down House, I am particularly indebted to the Honorary Curator of the Darwin Museum, Sir Hedley Atkins, Philip Titheradge, Custodian, and Sydney Robinson, the former Custodian. Their hospitality made working at Down House a great pleasure. For sustained assistance throughout the course of this editing project, I am also deeply indebted to Sydney Smith, Fellow of St Catharine's College, Cam- bridge, for sharing his rich knowledge of Darwin's writings; to Peter Gautrey, Assistant Under-librarian at Cambridge University Library, for deciphering difficult passages in the notebook and for checking my transcription of the entire notebook 20 SANDRA HERBERT against the original manuscript; and to M. J. Rowlands, Librarian of the British Museum (Natural History), for encouraging and aiding the project at every point. I also wish to thank fellow Darwin scholars Frederick Burkhardt, M. J. S. Hodge, David Kohn, David Stanbury, and Frank Sulloway for specific points of information relating to the text; David Snow of the British Museum (Natural History) for supplying current scientific names for a number of Darwin's ornithological specimens; and Robert Cross, Head of Publications of the British Museum (Natural History) and Anthony P. Harvey of the British Museum (Natural History) for their aid in bringing this project to fruition. Of librarians, beyond those already mentioned, I am most indebted to the reference staff at the Library of Congress, particularly James Flatness, James Gilreath, Ann Hallstein, David Kresh, and Melissa Trevvett. I also wish to thank John Schroeder of the U.S. Geological Survey Library, Edeltraud R. Nutt, Librarian of the Geological Society of London, and M. L Williams, Keeper of Printed Books, National Library of Wales. Photographs of the rheas which accompany this edition are from the San Diego Zoo, courtesy of Arthur Risser, those of the reconstructed Macrauchenia patachonica from the American Museum of Natural History, courtesy of Richard H. Tedford. Other photographs in this volume are from Cambridge University Library and the British Museum (Natural History). The diagrams in the introduction and the copies of Darwin's drawings were done by the Cartographic Service of the University of Maryland, Baltimore County. For financial support of this project, I am indebted to the National Science Foundation and the University of Maryland, Baltimore County. For encouragement and intellectual exchange, I am indebted at many levels to fellow scholars, friends, and family, of the last most particularly my parents, Emrick C. and Dorothy L. Swanson, and my husband James C. Herbert. Notes ' In 1942 the Darwin family, represented by Sir Alan Barlow, husband of Nora Barlow, a grand-daughter of Charles Darwin and herself an editor of Darwin manu- scripts, determined that the large collection of papers belonging to Charles Darwin in their possession would be made available to scholars. The family also determined to divide the collection, depositing the bulk of it at Cambridge University Library but reserving Charles's 'Diary' from the voyage, his Beagle notebooks, and some other items, particularly those relating to Down House, for the Darwin Museum. In accordance with this arrangement twenty-four notebooks from the Beagle voyage are now located at Down House. These include six soft-cover notebooks, bound in two sets of three, which list specimens collected during the voyage, and eighteen hard-cover notebooks, these last having been numbered by an unknown cataloguer. Of the numbered notebooks, notebook ' 1 ' is entirely excised and bears a INTRODUCTION 21 London address, notebooks '2' (the Red Notebook) and '5' ('St Helena Model') are partly of post-voyage date, and the others are field notebooks from the voyage. None of the twenty-four notebooks at Down House has previously been published in its entirety, but selections from all of them are contained in Nora Barlow, ed., Charles Darwin and the Voyage of the Beagle (London, 1945). For information relating to the deposit of the notebooks at Down House see Darwin MSS, Cambridge University Library, vol. 156. On the founding and operation of the Darwin Museum see Sir Hedley Atkins, Down: The Home of the Darwins (London, 1974), chapters 8 and 9. 2 Darwin MSS, Cambridge University Library. Divisions in this collection correspond to those in Darwin's own files. Excised pages from the Red Notebook were found in vol. 5, which contains an assortment of notes from Darwin's early life, and in vols. 40 and 42, which contain notes under several geological topics, including 'Earthquakes', 'Cleavage' and the like. A few portions of pages from the Red Note- book found at the University Library have not been included in this edition because I judged them too fragmentary to be of interest. As a rule Darwin cut out pages, or sections of pages, from his notebooks for use in future writing, placing them for reference under the appropriate heading in his files. For more information on the holdings of Darwin papers at Cambridge see the Handlist of Darwin Papers at the University Library Cambridge (Cambridge, 1960). 3 Darwin and Richard Owen first met at the house of Charles Lyell on 29 October 1836. See Leonard G. Wilson, Charles Lyell: The Years to 1841 (New Haven and London, 1972), p. 434. See also Darwin's letter to J. S. Henslow of 30 October 1836 in Nora Barlow, ed., Darwin and Henslow: The Growth of an Idea (Berkeley and Los Angeles, 1967), pp. 118-119. ^ The earliest known reference to Richard Owen's identifications of Darwin's South American fossil mammals occurs in a letter from Owen to Charles Lyell dated 23 January 1837. The letter is reproduced in full in Leonard G. Wilson, Charles Lyell: The Years to 1841 (New Haven and London, 1972), pp. 436-437. For Lyell's use of this information see Charles Lyell, 'Presidential Address to the Geological Society of London [17 February 1837]', Proceedings of the Geological Society of London, vol. 2 (1838), pp. 510-51 1. In reporting Owen's identifications Lyell summarized the results for science of the new specimens (p. 511): "These fossils. . .establish the fact that the peculiar type of organization which is now characteristic of the South American mammalia has been developed on that continent for a long period, sufficient at least to allow of the extinction of many large species of quadrupeds. The family of the armadillos is now exclusively confined to South America and here we have from the same country the Megatherium, and two other gigantic representatives of the same family. So in the Camelida, South America is the sole province where the genus Auchenia or Llama occurs in a living state, and now a much larger extinct species of Llama is discovered. Lastly, among the rodents, the largest in stature now living is the 22 SANDRA HERBERT Capybara, which frequents the rivers and swamps of South America and is of the size of a hog. Mr. Darwin now brings home from the same continent the bones of a fossil rodent not inferior in dimensions to the rhinoceros. These facts elucidate a general law previously deduced from the relations ascertained to exist between the recent and extinct quadrupeds of Australia; for you are aware that to the westward of Sydney on the Macquarie River, the bones of a large fossil kangaroo and other lost marsupial species have been met with in the ossiferous breccias of caves and fissures." ^ The notes I refer to are contained in volumes 30 and 31 of the Darwin manu- script collection at Cambridge University Library. * Darwin's earliest recollection of the origin of his new views occurs in a journal entry for the year 1837 and reads as follows: "In July opened first note book on 'transmutation of Species' — Had been greatly struck from about month of previous March on character of S. American fossils — & species on Galapagos Archipelago. These facts origin (especially latter) of all my views." This entry appears in a notebook begun in .August 1838. A fair copy of the notebook was published as Sir Gavin de Beer, ed., 'Darwin's Journal', Bulletin of the British Museum (Natural History) Historical Series, vol. 2 (1959) where the quoted entry appears on page 7. The entry as quoted here is taken from the original notebook which has come to light since 1959. '' Darwin's full account of his conversion to transmutationist views as it appears in his autobiography written some forty years after the events reads as follows: "During the voyage of the Beagle I had been deeply impressed by discovering in the Pampean formation great fossil animals covered with armour like that on the existing armadillos; secondly, by the manner in which closely allied animals replace one another in proceeding southwards over the Continent; and thirdly, by the South American character of most of the productions of the Galapagos archipelago, and more especially by the manner in which they differ slightly on each island of the group; none of these islands appearing to be very ancient in a geological sense. It was evident that such facts as these, as well as many others, could be explained on the supposition that species gradually become modified; and the subject haunted me." The passage is taken from Nora Barlow, ed.. The Autobiography of Charles Darwin (London, 1958), pp. 118-119. *I refer here to Jean Baptiste de Lamarck (1744-1829) whose views Darwin encountered most forcefully although critically expressed in the second volume of Charles Lyell's Principles of Geology (1832). * The most striking instance in Darwin's collection where professional judgement recognized small differences as indicating good species was the Galapagos mocking- birds. See note 159 to the text and subsequent discussion in this introduction. '° See notes 174 and 234 to the text of the Red Notebook. " See note 6 to this introduction. INTRODUCTION 23 '■^ In his later account Darwin recalled being particularly impressed by the similarity between "great fossil animals covered with armour" [glyptodonts] and living armadillos. See Nora Barlow, ed., The Autobiography of Charles Darwin (London, 1958), p. 118. Richard Owen confirmed Darwin's interpretation of the affinity of the 'glyptodont' and the armadillo in January 1837. See Leonard Wilson, Charles Lyell: The Years to 1841 (New Haven and London, 1972), p. 437. 1^ Red Notebook, p. 130 and note 159. It should be stressed that the relationship of the South American and Galapagos mockingbirds is exactly that which Darwin described in his autobiography: "During the voyage of the Beagle I had been deeply impressed. . .by the South American character of most of the productions of the Galapagos archipelago, and more especially by the manner in which they differ slightly on each island of the group; none of these islands appearing to be very ancient in a geological sense." Nora Barlow, ed.. The Autobiography of Charles Darwin {'LonAon, 1958), p. 118. ^* Sir Gavin de Beer, ed., 'Darwin's Journal', Bulletin of the British Museum {Natural History) Historical Series, vol. 2 (1959), p. 7, refers to the opening of the first notebook on 'transmutation of Species' in July 1837. This is Notebook B. Darwin filled this notebook sometime in February or March 1838. The exact date is in doubt. Darwin referred in his heading to the notebook (probably added in 1844 when he was arranging his papers) that he completed the notebook at the beginning of February. In fact the notebook must have been completed somewhat later, for p. 235 refers to the issue of the Athenaum of 24 February 1838. Since the notebook ran to another 29 pages of text after p. 235, it was probably completed no earlier than the end of the month. Notebook B is numbered as vol. 121 in the Darwin MSS, Cam- bridge University Library, and is published as: Sir Gavin de Beer, ed., 'Darwin's Notebooks on Transmutation of Species. Part I ', First Notebook (July 1837-February 1838), Bulletin of the British Museum (Natural History) Historical Series, vol. 2 (1960), pp. 23-73. A number of the excised pages to Notebook B, and to its successors. Notebooks C, D, and E, were later published as : Sir Gavin de Beer and M. J. Rowlands, 'Darwin's Notebooks on Transmutation of Species. Addenda and Corrigenda', Bulletin of the British Museum {Natural History) Historical Series, vol. 2 (1961), pp. 185- 200, and Sir Gavin de Beer, M. J. Rowlands, and B. M. Skramovsky, 'Darwin's Notebooks on Transmutation of Species, Part VI, Pages Excised by Darwin', Bulletin of the British Museum {Natural History) Historical Series, vol. 3 (1967), pp. 129-176. ^^ There is, incidentally, another passage in Notebook B which supports the more general conclusion that Notebook B was the successor to the Red Notebook. On page 153e of Notebook B Darwin referred to the Red Notebook as follows: "See R.N. p. 130 speculations range of allied species, p. 127 p. 132. There is no more wonder in extinction of individuals than of species." Clearly the Red Notebook, at least to page 130, was already in existence by the time Darwin made this entry in Notebook B. 24 SANDRA HERBERT *^ The dates when important specimens referred to in the Red Notebook were identified by professional zoologists are as follows : the Macrauchenia was referred to descriptively, although not by that name, in a letter written to Richard Owen dated 23 January 1837; the Galapagos mockingbirds were described at a meeting of the Zoological Society of London on 28 February 1837; and the new species of South American rhea was described at a meeting of the Zoological Society of London on 14 March 1837. See also notes 152, 159, and 149 to the text. ^■^ Nora Barlow, ed.. The Autobiography of Charles Darwin (London, 1958), p. 118. The similarity of the polygonal plates of the glyptodon specimen to those of the armadillo was noticed by Darwin "immediately I saw them." (Darwin to J. S. Henslow, 24 November 1832, in Nora Barlow, ed., Darwin and Henslow : The Growth of An Idea [Berkeley and Los Angeles, 1967], p. 61.) Darwin was not the first to note the similarity of the large plates to the smaller ones of the armadillo. On this point see Thomas Falkner, A Description of Patagonia (London, 1774), p. 55. " Sir Gavin de Beer, ed., 'Darwin's Journal', Bulletin of the British Museum {Natural History) Historical Series, vol. 2 (1959), p. 7. ^^ Nora Barlow, ed., 'Darwin's Ornithological Notes', Bulletin of the British Museum {Natural History) Historical Series, vol. 2 (1963), p. 262. The full paragraph reads as follows: "I have specimens from four of the larger islands; the two above enumerated, and (3349: female. Albermarle Isd.) & (3350: male: James Isd).— The specimens from Chatham & Albermarle Isd appear to be the same; but the other two are different. In each Isld. each kind is exclusively found: habits of all are indistin- guishable. When I recollect, the fact that the form of the body, shape of scales & general size, the Spaniards can at once pronounce, from which Island any Tortoise may have been brought. When I see these Islands in sight of each other, & [but del.] possessed of but a scanty stock of animals, tenanted by these birds, but slightly differing in structure & filling the same place in Nature, I must suspect they are only varieties. The only fact of a similar kind of which 1 am aware, is the constant asserted difference — between the wolf-like Fox of East & West Falkland Islds. — If there is the slightest foundation for these remarks the zoology of Archipelagoes — will be well worth examining; for such facts [would inserted] undermine the stability of Species." For more extended discussion of this passage see Sandra Herbert, 'The Place of Man in the Development of Darwin's Theory of Transmutation, Part I. To July 1837', Journal of the History of Biology, vol. 7 (1974), pp. 236-240. ^° From Darwin's commentary on specimens in John Gould, The Zoology of the Voyage of H.M.S. Beagle. Part HI: Birds. 5 numbers. (London, 1838-1841), pp. 63- 64. ^' Darwin to J. S. Henslow, 30 October 1836, in Nora Barlow, ed., Darwin and Henslow: The Growth of An Idea (Berkeley and Los Angeles, 1967), p. 122. INTRODUCTION 25 ^^ The original draft and a fair copy of the paper are contained in vol. 41 of the Darwin manuscript collection at Cambridge University Library. A transcription of the original draft is available in print as 'Coral Islands by Charles Darwin', Intro- duction, Map and Remarks by D. R. Stoddart, Atoll Research Bulletin, No. 88 (1962). Darwin's theory of coral island formation first appeared in print as Charles Darwin, 'On Certain Areas of Elevation and Subsidence in the Pacific and Indian Oceans, As Deduced from the Study of Coral Formations', Proceedings of the Geological Society of London, vol. 2 (1838), pp. 552-554. A fuller version of the theory appeared later as Charles Darwin, The Structure and Distribution of Coral Reefs. Being the First Part of Geology of the Voyage of the Beagle, under the Command of Capt. Fitzroy, R.N. during the Years 1832-1836 (London, 1842). ^^ Charles Darwin, Geological Observations on South America. Being the Third Part of the Geology of the Voyage of the Beagle, under the Command of Capt. Fitzroy, R.N. during the Years 1832-1836 (London, 1846). ^^ Charles Darwin, Journal of Researches into the Geology and Natural History of the Various Countries Visited by H.M.S. Beagle (London, 1839). Also published as volume 3 of Robert Fitzroy, ed., Narrative of the Surveying Voyages of His Majesty's Ships Adventure and Beagle. . . 1832-1836 (London, 1839). ^^ See Nora Barlow, ed., Charles Darwin's Diary of the Voyage of H.M.S. Beagle (Cambridge, 1933). ^^ Compare, for example, the Red Notebook (page 132) and the Journal of Researches (page 262) on 'associated life' or the Red Notebook (pages 129-130, 132- 133) and the Journal of Researches (pages 208-212) on the successions of fossil and living forms and the causes of extinction of species. The references to the Journal are from Charles Darwin, Journal of Researches into the Geology and Natural History of the Various Countries Visited by H.M.S. Beagle (London, 1839). It is worth remarking that the presence of theoretical passages in th.e Journal of Researches is disguised by the organization of the work, which is chronological rather than logical, and by the lack of an adequate index. ^'' The primary series of formal notes from the voyage are contained in vols. 30- 31 (zoology) and vols. 32-38 (geology) of the Darwin MSS at Cambridge University Library. ^° There is one notable exception to this schema: the field notebook Darwin carried with him when he investigated the 'parallel roads' of Glen Roy in Scotland in June and early July 1838. It is almost entirely observational in character. The note- book is numbered as vol. 130 in the Darwin MSS at Cambridge University Library. ^^ In other writing Darwin usually referred to the notebook as ' R.N.' or even the 'R.N. notebook' rather than as the 'Red Notebook'. I am grateful to M. J. S. Hodge 26 SANDRA HERBERT of the University of Leeds for locating and informing me of an instance where Darwin used the full name of the notebook. It occurs on the verso of a scrap of paper in vol. 29 (iii) of the Darwin MSS at Cambridge University Library. I have since come upon other instances in Darwin's notes where he used the full name of the notebook, but they are rare. ^° Notebook A was kept from about July 1837 to the late spring of 1839. Both dates are conjecture on my part. The first datable reference of relevance in the note- book occurs on p. 15e and is to the August 1837 issue of L'Imtitut. (Since Notebook A was filled fairly evenly and slowly, overall at the rate of fewer than ten pages a month, the August date on p. 15e would not preclude an earlier opening date than July for the notebook.) With respect to the closing date, nothing is certain, but Darwin was already abstracting from the notebook as early as 24 February 1839. In a sense the notebook had served its purpose by that date. Notebook A, which I am presently editing for publication, is numbered as vol. 127 in the Darwin MSS at Cambridge University Library. ^' While no complete account of Darwin's geological work exists, the subject of Lyell's influence on Darwin during the post-voyage period is treated in Leonard G. Wilson, Charles Lyell: The Years to 1841 (New Haven and London, 1972), chapter 7. For a brief account of Lyell's influence on Darwin with respect to one particular problem see: Martin Rudwick, 'Darwin and Glen Roy: A "Great Failure" in Scientific Method?', Studies in the History and Philosophy of Science, vol. 5 (1974), pp. 165-167. ^^ Darwin's major piece of field research in the 1837-1839 period was his investigation of the so-called 'parallel roads' of Glen Roy. He recorded his observa- tions from this research in the notebook described in note 28 above. ^^ Darwin published the following papers on geological topics during the years 1837-1839: 'Observations of Proofs of Recent Elevation on the Coast of Chili, Made during the Survey of His Majesty's Ship Beagle, Commanded by Capt. Fitzroy, R.N.', [Read 4 January 1837] Proceedings of the Geological Society of London, vol. 2 (1838), pp. 446-449; 'A Sketch of the Deposits Containing Extinct Mammalia in the Neighbourhood of the Plata', [Read 3 May 1837] Proceedings of the Geological Society of London, vol. 2 (1838), pp. 542-544; 'On Certain Areas of Elevation and Subsidence in the Pacific and Indian Oceans, as Deduced from the Study of Coral Formations', [Read 31 May 1837] Proceedings of the Geological Society of London, vol. 2 (1838), pp. 552-554; 'On the Formation of Mould', [Read 1 November 1837] Transactions of the Geological Society of London, 2nd ser., vol. 5, pt. 3 (1840), pp. 505-509; 'On the Connexion of Certain Volcanic Phenomena in South America; and on the Formation of Mountain Chains and Volcanos, as the Effect of the Same Power by which Conti- nents Are Elevated', [Read 7 March 1838] Transactions of the Geological Society of London, 2nd ser., vol. 5, pt. 3 (1840), pp. 601-631; 'Observations on the Parallel INTRODUCTION 27 Roads of Glen Roy, and of Other Parts of Lochaber in Scotland, with an Attempt to Prove that They Are of Marine Origin', [Read 7 February 1839] Philosophical Trans- actions of the Royal Society of London, vol. 129 (1839), pp. 39-81 ; and 'Note on a Rock Seen on an Iceberg in 61° South Latitude', Journal of the Royal Geographical Society of London, vol. 9 (1839), pp. 528-529. These citations are from Paul H. Barrett, ed., The Collected Papers of Charles Darwin (Chicago and London, 1977), vol. 1, pp. v-vi and 41-139. ^* The three parts of Darwin's geological results from the Beagle voyage as published in book form were as follows: The Structure and Distribution of Coral Reefs (London, 1842); Geological Observations on the Volcanic Islands Visited during the Voyage of H.M.S. Beagle (London, 1844); and Geological Observations on South America (London, 1846). Although published over five years, Darwin regarded the three parts as forming a single work. ^^ Darwin's first public announcement of his theory of evolution through natural selection was at a meeting of the Linnean Society held on 1 July 1858. For an assessment of the meeting see J. W. T. Moody, 'The reading of the Darwin and Wallace papers : an historical "non-event" ', Journal of the Society for the Bibliography of Natural History, vol. 5 (1971), p. 474-476. The resultant publication with .Alfred Russel Wallace appeared under a general title as: 'On the Tendency of Species to Form Varieties; and on the Perpetuation of Varieties and Species by Natural Means of Selection', Journal of the Proceedings of the Linnean Society of London, Zoology, vol. 3 (1858), pp. 45-62. The next year saw the publication of Darwin's On the Origin of Species by Means of Natural Selection (London, 1859). On the relation of Darwin's theoretical work to his pattern of publication see Sandra Herbert, 'The Place of Man in the Development of Darwin's Theory of Transmutation, Part II', Jotirnal of the History of Biology, vol. 10 (1977), pp. 157-196. ^^ Notebook B was begun in July 1837 and completed in February or March 1838. Notebook C was begun about March 1838. When completed, it was replaced by Notebook D, opened on 15 July 1838. When filled. Notebook D was in turn replaced by Notebook E, begun about 2 October 1838 and ended on 10 July 1839. Notebooks B to E comprise vols. 121-124 of the Darwin MSS at Cambridge University Library. They have appeared in print as Sir Gavin de Beer, ed., 'Darwin's Notebooks on Transmutation of Species. Parts I-IV, Sir Gavin de Beer and M. J. Rowlands, eds., 'Darwin's Notebooks on Transmutation of Species. Addenda and Corrigenda', and Sir Gavin de Beer, M. J. Rowlands, and B. M. Skramovsky, eds., 'Darwin's Note- books on Transmutation of Species. Part VI. Pages Excised by Darwin', Bulletin of the British Museum (Natural History) Historical Series, vol. 2 (1960-1961), pp. 23-200; vol. 3 (1967), pp. 129-176. The unexcised portions of Notebooks B, C, D, and E correspond to Parts I-IV in this series. In addition to Notebooks B-E, twenty-two pages of another notebook on transmutation have been located among the Darwin 28 SANDRA HERBERT manuscripts at Cambridge University Library. This 'Torn-up Notebooii' was first assembled by Sydney Smith and announced in his Sandars Lectures of 1966-1967. The notebook was opened in about July 1839 and, on the evidence of a dated page, was kept through June 1841. A plausible closing date for the notebook might be autumn 1841. This notebook is presently being edited for publication by Sydney Smith and David Kohn. From the collections at the Cambridge University Library, David Kohn has also located another notebook from the early period of Darwin's work on species. The six extant pages of this notebook date from the summer of 1842 and pertain to the subject of the cross-fertilization of flowers. *■' Notebook M was opened on 15 July 1838. When filled it was replaced by Notebook N, opened on 2 October 1838. Entries in Notebook N declined by mid- summer 1839, though occasional entries were made as late as 1840. Notebooks M and N comprise vols. 125 and 126 of the Darwin MSS at Cambridge University Library. They were edited by Paul H. Barrett and appear in Howard E. Gruber and Paul H. Barrett, Darwin on Man: A Psychological Study of Scientific Creativity (New York, 1974). ^^ In September 1838 Darwin was in fact pursuing four separable lines of inquiry as indicated by his method of note-taking. The fourth line of inquiry was 'generation' meaning, loosely, reproduction. Generation was an important topic throughout Notebooks B-E but one given especial prominence in Notebook D by virtue of the fact that the end portion of the notebook (pages 152-180) was set aside for it alone. Darwin opened this section of the notebook on 11 September 1838; presumably it was filled by 2 October 1838 as the heading of the notebook indicates. ^8 For a review of work since 1959 see John C. Greene, 'Reflections on the Progress of Darwin Studies ', Journal of the History of Biology, vol. 8 ( 1 975), pp. 243- 273. ^° The Red Notebook contains the earliest known evidence of Darwin's belief in the mutability of species. From his own later accounts Darwin's arrival at the notion of natural selection was precipitated by reading Thomas Robert Malthus' An Essay on the Principles of Population. Darwin recorded his reading of Malthus in an entry in Notebook D dated 28 September 1838; see Sir Gavin de Beer, M. J. Rowlands, and B. M. Skramovsky, eds., 'Darwin's Notebooks on Transmutation. Part VL Pages Excised by Darwin', Bulletin of the British Museum {Natural History) Historical Series, vol. 3 (1967), pp. 162-163. Darwin's earliest draft of his theory was his 'Sketch' of 1842, followed by his lengthier Essay of 1844. For these see Charles Darwin and Alfred Russel Wallace, Evolution by Natural Selection (with a foreword by Sir Gavin de Beer) (Cambridge, 1958). In 1856 Darwin began his longest exposition of his argument. For the reconstructed text of this version see R. C. Stauffer, ed., Charles Darwin's Natural Selection (Cambridge, 1975). The theory finally came before the public in 1858 in a brief announcement to the Linnean Society of London (see INTRODUCTION 29 note 35, above) and then, a year later, in the form in which it is generally known: Charles Darwin, On the Origin of Species by Means of Natural Selection (London, 1859). ^^ In setting an editorial standard I have made extensive use of the work of other Darwin editors, particularly: P. Thomas Carroll, An Annotated Calendar of the Letters of Charles Darwin in the Library of the American Philosophical Society (Wilmington, Delaware, 1976), pp. xxvii-xxxvii; Sir Gavin de Beer, ed., 'Darwin's Notebooks on Transmutation of Species. Part IV', Bulletin of the British Museum (Natural History) Historical Series, vol. 2 (1960), pp. 158-159; Howard E. Gruber and Paul H. Barrett, Darwin on Man: A Psychological Study of Scientific Creativity (New York, 1974), pp.xviii-xxii;and R. C. Staufier, Charles Darwin sNatural Selection(Cambndge, 1975), pp. ix, 15-21. The 'Style Manual and Guide to Editorial Practice' governing the future publication of The Collected Letters of Charles Darwin, jointly edited by Frederick Burkhardt, Sydney Smith, David Kohn, and William Montgomery, has also been consulted. In addition I found helpful G. Thomas Tansell, 'The Editing of Historical Documents', Studies in Bibliography [Papers of the University of Virginia Bibliographical Society], vol. 31 (1978), pp. 1-56. *2 R. C. Stauffer, ed., Charles Darwin's Natural Selection (Cambridge, 1975), pp. 20-21. front covor R.N inside up to Ql" / or P' of ?]] July 1835. the excess of iiarbor = 180 front See Daubisson both Volumes,' and Molina P' VoP [&i. LyellJ^ cover Sailed, [27"?] (Friday, gale sg"") Friday Thursday 29'" gale /Xyell's GeologyJ'' /"The living atoms having definite existence, those that have undergone the greatest number of changes towards perfection (namely mammalia) must have a shorter duration, than the more constant : This view supposes the simplest infusoria same since commencement of world. — ^j^l £" J Darwin's addition < > Darwin's cancellation [_ ]] Editor's remark [...?] Uncertain reading I End of notebook page e Wholly or partly excised page l^ie Qiot located] | 5e La. billardiere mentions the floating marine confervae, is very common within E. Indian Archipelago, no minute description, calls it a Fiiciis. P fVol I 287J6 P 379. Henslow Anglesea, nodules in Clay Slate, major axis 2.1/2 ft. — singular structure of nodule, constitution /^same asj of slate same. — longer axis in line of Cleavage, laminae fold round them;'' Quote this. Valparaiso Granitic nodules in Gneiss. | 6e Epidote seems commonly to occur where rocks have undergone action of heat, it is so found in Anglesea, amongst the varying & dubious granites. — Wide limits of this mineral in Australia. Fitton's appendix* Would Slate. & unstratified rocks show any difference in facility of conducting Electricity? Would minute particles have a tendency to change their position? | 7e Carbonate of Lime disseminated through the great Plas Newydd dike. — Mem tres Montes. ((Henslow Anglesea))' great variety in nature of a dike. — Mem. at Chonos & Concepcion. P. 4<17'° Veins of quartz exceedingly rare Mem C. [[Cape]] Turn P. 434 & 41911 As Limestone passes into schist scales of chlorites — Mem. Maldonado P 375i2 Much Chlorite in some of the dikes. — P 432.'^ as in Andes. | 8e In Dampier's voyage there is a mine of metereology with respect to the discussion of winds & storms:''' — [m Volney's travels alsoj'^ Dampier's last voyage to New Holland P 127. — Caught a shark 1 1 ft long.'* "Its maw was like a leathern sack, very thick & so tough that a sharp knife could not cut it : in which we found the Head & Boans of a Hippotomus ; the hairy lips of which were still sound and not petrified, and the | 34 SANDRA HERBERT 9 jaw was also firm, out of which we pluckt a great many teeth, 2 of them, 8 inches long, & as big as a mans thumb, the rest not above half so long; The maw was full of jelly which stank extreamly." — This shark was caught in Shark's Bay. Lat 25°.'' The nearest of the E Indian Islands, namely Java is 1000 miles distant! Where are Hippotami found in that Archipelago? Such have never been observed in Australia | 10 Dampier also repeatedly talks about the immense quantities of Cuttle fish bones floating on the surface of the ocean, before arriving at the Abrolhos shoals. — '^ N.B. The view of the Volcanos of the chain of the Cordilleras as arising from f the expulsion of fluid nucleus throughj faults or fissures, produced by the elevations of those mountains on the continent of S. America is inadmissible f may have happened from incipient elevation. J The volcanos originated | 1 1 in the bottom of the ocean. & the present Volcanos have been said to be merely accidental apertures still open. — The fault like appearance f arising from the manner of horizontal upheavalj of the shore of the Pacifick is 60 miles distant from the grand ancient volcanic axis [oi the Andesj. — /fHas this fault determined side of volcanic activity .J That axis was produced, from a fissure in a deep & therefore weak part of the ocean's bottom. | 12 With respect to Sharks distributing fossil remains: Sharks followed Capt. Henry's vessel from the Friendly Isles, to Sydney; know by having been seen & from the contents of its maw, amongst which were things pitched over board early in the passage ! ! — '' M. Labillardiere in Bay of Legrand, (SW part), describes a Small granite Is"*- capped by Calcareous rock;-^ following | 13- [not located^ l4e 18 - 70 12 40 12 50 5 35 18 77 7 60 THE RED NOTEBOOK 35 15e Find instances; The whole coast of New Holland shoals much: Dampier remarks on great flats on the NW coast : — ^^8 leagues, from Sydney 90 fathoms La Peyrouse.^^ South of Mocha; 19 miles. 65 Fathoms Vide facts in Beechey. on NW coast of America^^ off Cape of Good Hope 70 fathoms 20 miles from the shore ? Beagle Coast of Brazil ? where not rivers [m my Coral paperj^'' | leagues Fathoms We Parallel of St Catherine [27° 30' S.^s Paranagua [25° 42' S.] St Sebastian [23° 52' S.] Joatingua SE [23° 22' S.] R. de Janeiro SE [23° 58' SJ C. Frio [23° S.] Soundings about same as last to N. of C. Frio Except at Abrolhos. [18° S.] Bahia [12° 57' S.] 8 200 Morro S. Paulo [13° 22' S.] Garcia de Avila [lighthouse] [12° 35' S.] Itapicuru [R.] [ll°46'S.3 R. Real [11° 31' S.] & [RJ Sergipe [11° 10' S.] R. San Francisco [l0° 32' S.] Whole coast to Olinda [8° S.] £ at twice or /f 18-20J2* <60> — 80 120 parallel of Olinda Shoaler N. of Olinda. — a little WNW of C. Rock. [5° 29' S.] still shoaler, coast composed of sand dunes. 15 — 15 Does not seem to consider this a very shoal coast. ^^ Beyond the 10 or 12 leagues sea deepens suddenly, coast of Brazil generally. — | 9 120 9 124 9 200 20 190 10 50 -10 = 30-40 36 SANDRA HERBERT 17 M" Power at Port Louis talked of the extraordinary freshness of the streams of Lava in Ascencion known to be inactive 300 years r^^ No Vok'anic Earthquakes or Hot Springs in T. del Fuego = The Wager's Earthquake the most Southern one I have heard of^^ | 18 In a preface, it might be well to urge, geologists to compare whole history of Europe, with America ; I might add I have drawn all my illustrations from America, purposely to show what facts can be supported from that part of the globe : & when we see conclusions substantiated over S. America & Europe, we may believe them applicable to the world. — | 19e My general opinion from the examination of soundings, from about 80 fathoms & upwards, that life is exceedingly rare, at the bottom of the sea. — ^certainly data insufficient, yet goodj [{I suspect fragments of shells will generally be found to be old & dead)j [{I have not kept a record) J In looking over the lists of organic remains in De la Beche,^° for the older formations I must believe they /fthe limestonesj have been formed in shallow water : so have the Conglomerates : Yet this view is directly opposed to common opinion | 20e The Tertiary formation South t)f tiie Maypo at one period of elevation must in its configuration have resembled Chiloe In De La Beche, article "Erratic blocks" not sufficient distinc- tion is given to angular & rounded. — 3' Fox Philosoph. Transactions on metallic veins. 1830 P. 3.99. — ^2 Came. Geolog. Trans: Cornwall /fVol IIJ" | 21 It is a fact worth noticing that cryst of glassy felspar in Phonolite arrange themselves in determinate planes .'. such action can take place in melted rocks The frequent coincidence of line of veins & cleavage is import- ant; veins appearing a galvanic phenomenon, so probably will the Cleavage be THE RED NOTEBOOK 37 There is a resemblance at Hobart town between the older strata & the bottom of sea near T. del Fuego. — | 22 Is there account of Baron Roussin's voyage. — ^'* In Europe proofs of many oscillations of level, wiiich in the nature of strata & Organic remains does not appear to have taken place in the Cordillera of S. America. Study Geolog : Map of Europe Conybeare. Introduct XII P. silicified bones not common in Britain, Mem Concepcion Says Echinites. Encrinites. Asterise, usually petrified into | 23 a peculiar cream-coloured Limestone : ^^ the strange substitution of matter in shells, like Concretions & lamina? show what movements take place in semiconsolidated rocks P XV. mentions in what formations Conglomerates are found. — ^* The above oscillations remarkable because the formations are now seen in regular descending steps | 24 Mem.; rapidity of germination in young corals. — vide L. Jackson's paper. Philosoph Transact :^^ at R. de Janeiro. Coquinibo. Balanidffi. at Concepcion. Humb: Pers. N. vii P. 56^^ Serpentine form; of Cuba for comparison ( .'') with St Pauls | 25- [not located] 26e 27 The frequency of shells in the Calc. Sandstone Concret, is connected with frequency of shells in flints in Chalk New Providence more hilly than others of the Bahama consists of rock & sand mixed with sea shells — about 500 Is"* & great banks, effect of Elevation. United service JournaP^ | 28 In the Iron sand formation (would) wood converted into siliceous pyritous & coaly matter. Mem: Chiloe In the endless cycle of revolutions, by actions of rivers currents. & sea beaches. All mineral masses must iiave a tendency, to mingle; The sea would separate quartzose sand from the finer matter resulting from degradation of Felspar & other minerals containing 38 SANDRA HERBERT Alumen. — This matter | 29 accumulating in deep seas forms slates : How is the Lime separated ; is it washed from the solid rock by the actions of Springs or more probably by some unknown Volcanic process? How does it come that all Lime is not accumulated in the Tropical oceans detained by Organic powers. We know | 30 the waters of the ocean all are mingled. These reflections might be introduced either in note in Coral Paper or hypothetical origin of some sandstones, as in Australia. — Have Limestones all been dissolved, if so sea would separate them from indissoluble rocks.'' Has Chalk | 31 ever been dissolved.? Singularity of fresh water at Iquiqui. not from rain, because alluvium saline; Mem: on coast of Northern Chili as springs become rarer, so does the rain, therefore such rain is cause, hence at least no water is absorbed into the earth •(I did not see one dike in the whole Galapagos Arch; because no sections, same cause as no (^colour ?]) | 32 Sir J. Herschels idea of escape of Heat prevented by sedi- mentary rocks, & hence Volcanic action, contradicted by Cordillera, where that action commenced before any great accumulation of such matter. — '"' D'' A. Smith says, that Boulders do not occur in the South African plains. — '" Sydney no | 33e I believe the secondary.' formations of Brazil, ail originate from the decomposition of Granitic rocks Mem. Chanticleers voyage at <[J?] QMaranhrl) Pernambuco.''- \jhe following is a newspaper clipping pasted on tlie jwge :'*■' EARTHQUAKE AT SEA. — Extract from tiie l()g-lK)ok of the James Cruikshank, Captain John Young, on her voyage from Demerara to London: — "Feb. l!2, 1835. At lOh. I. 'tin. a severe shock of earthquake shook tiie ship in a most violent manner. Although it lasted about a minute, tiiere was no uncommon ripple THE RED NOTEBOOK 39 on the water. It was quite calm at the time. Latitude 8 deg. 47 min. N : longitude 61 deg. '22 min. W. mid. calm and clear.] Caermarthen Journal | 34e I look at the cessation northwards of the Coal in Chili as clearly bearing a relation to present position of Forests. These thick beds of Lignite stratified with substances so like the Coal measures in England ( Excepting Conglomerates .? ) f & absence of limestone PJ have been collected on the open coast. Perhaps as at Concepcion. favoured by basin formed by outlying rocks; (such as between Mocha & main land). At Carelmapu. — Within Chiloe : — | S5e On open coast, near where Challenger was lost : ■*"* I know no reason for supposing these matters are not now collecting, in the bottom of an open & not deep sea. — (Character of coast regular & (not very) rather deep soundings, 60-100 fathoms '2 & 3 miles from shore. V. Chart) Every winter torrents must bring much vegetable matter from thickly wooded mountains, probably chiefly leaves. — This position agrees with character of., /fin Basins from rivers. & natural position^ I S6e position at N.S. Wales & Van Diemen's land. — Whole coast S. of Concepcion where there are Tertiary strata there is Coal - No shells in all cases. /f.Mytilus. — J'*^ /fat GuachoJ/fon N. Chile? Washington. — J'*^ Mem: Micaceous formation of Chonos. interesting from great quantity of altered Carbonaceous shales Examine chart of Patagonian coast to see proportional cliff & low or sloping land What are the "palatal Tritores" found in the coraliferous mountain Limestone | ,37e are they allied to the jaws of the Cocos fish Rio Shells argument for rise In Cordillera, the dikes do not generally appear to have fallen into lines of faults I do not tiiink so many faults in Cordillera, as in English Coal field — because lowered & raised — so on — but gradually & simply raised 40 SANDR-iV HERBERT No Faults in Patagonia^,]] enormous extent ; if lowered again & covered no sign of upheaval | 38e To Cleavage add other instances in old world of syinetrical structure. East India Archipelago. /^Aleutian Arch. — j V. Fitton. Australia:''^ cases in Europe. — Auvergne. very little Pumice, though Trachyte, same fact in Galapagos. Daubeny P 24"^ [Y. back of page 1 of New Zealand Geological Notes.J"" at St. Helena. This structure was very clear at base of great lava cliffs50 [Fig. i] line of high tidal action NB. patches of modern Conglomerates [Fig. 2]] 39e The action of sea A.B. will be to eat in the land in line of highest tidal action, this will at length be checked by increased vertical {height) thickness (DZ) of mass to be removed & from the resistance offered to the greater lateral extension of the waves, by the part beneath the band of greatest action not having been worn away. — If the level of the sea was to sink by very slow & gradual movements to line (2). The part (()) which was before beneath band, of greatest action, would now l)y degrees be exposed THE RED NOTEBOOK 41 i/.t^h^ A-,^ J > i'-i^^^fr^ f^r- "^ ^'2*-'. -p ■^irA.:^ ecr ■: . ^i' % (2' . ^*^/- - / Av ^- .^-^ ^/: Page 38e with sketches of a possible explanation for the appearance of a section of lava cliffs along the coast at St Helena. to it, & the result would Qbe] a uniform slope to base of cliff ( Z ) . to which point the waves would not reach. If now the ocean should suddenly | 42 SANDRA HERBERT 40e fall, (s) the case would be as at first. & according to the greater or less time of rest, so would the size of the triangular mass removed vary. — The gradual rising continuing, a another [_sic'2 sloping platform would be made, & so on. — This is grounded on the belief of constant rising with successive periods of greater activitj' & rest. — Such changes could be shown (as represented), along line of coast. — [Fig- '-211 Mem San Lorenzo ; Valley of Copiapo & parts of coast of Chile. — Must first explain ftop ofj tidal band of action. | 41 This case differs. I think, from Patagonian steps, because the deposition & accumulation is brought into play As in Ocean & Air; there are /flikewisej differences of temperature {"at equal distances from centre of rotationj & a {circulation owing) rotation in fluid matter of globe, must there not be a circulation f however slow & weak. J; /^( cause of not accumulation of Coral limestone in intertropical ) J hence varieties of substances ejected from same point. & changes, {"(changes in variation.'') J as in Cordillera. — From poles to Equator current downwards & to West. — From Equator to poles, nearer the surface & to the Eastward. — If matter proceeds from great depth, from axis to surface must gain a Westerly current : — If great changes of climate have happened, hurricane in bowels of earth cause : — does not exj)lain cleavage lines./ possibly general symetry of world. — | 42 I feel no doubt, respecting the brecciated white stone of Chiloe, after having examined the changes of pumice at Ascension In Calc: sandstone at Ascension, each particles coated by pellucid envelope of Lime. — form resembles the husks at Coquimbo: in that case, may not central and rather differently constituted lime have been removed r — As shell out of its cast which, although not very intelligible is a familiar case : If refiltered with other matter how very curious a structure : Have shells ever casts alone in Calc[[areous.'']]. rocks! .' — if so case precisely analogous : fragments instead I THE RED NOTEBOOK 43 43e Peak of Teneriffe. also Cotopaxi has a cylinder placed on the rim of conical crater: at Teneriffe Wall of Porph. Lava with base of Pitchstone; Mem Galapagos, chiefly red glassy scoria;. — could walk round base : — not universal : could not climb up many parts, in James Is*^. — Mem St Helena — All Trachytic. — /^DaubenyJ^i P. 171. Vol I. Huniboldt52 There is long discussion on Pumice /f& Obsidian :J in the I Vol. Humb:53 There is rather good abstract of Humboldt. S. American Geolog. in Daubeny. P. 3495^ Admirable little table showing long periods of great violence volcanic, from Humboldt: Comparison P 361. Daubeny ^^ | 44e Von Buch is very strong about Trachyte being the most inferior rocks 5* — The stream at Portillo Pass example of do.-" Daubeny good account of ejected granitic fragments. P. 386^^ /^Mem. Lyell's fact about sulphuric vapours in East Indian VolcanosJ^^ Gypsum Andes | 45e Mem. Beechey. account of regular change in soundings, on approaching tiie coast of NW. America P. 209-13 P & 444/f( Yanky Edit)J59 <(I think) At*" Ascension, the lamina changes in rocks, connected with & alternating with obsidian must clearly be chemical differences. & not those of rapid cooling &c &c My results go to believe that much of all old strata of England, formed near surface : Mem Patagonian pebbles beds, most un- favourable to preservation of bones &c &c — Yet (silicified) turn over 61 46e Silicified wood. Cordilleras, Chiloe. &c seems the organic structure most easily preserved. — M'' Conybeare introduct to Geolog — "Between the height of same beds, deposited in different basins ; little or no relation appears 44 SANDRA HERBERT to f quantity of ironj being there in excess. — If veins (^.,y are secretionary, so are all those plates in Australia. New Red Sandstone, at Bahia in modern sandstone, a circle, (^^ . had in its middle a short f fissurej vein terminated each way, which little vein was like the rest of these thin veins which project outwards. — | 67e In Patagonia, the blending of pebbles & the appearance of travelling may be owing to successive transportal from prevailing swell, (as Shingle travels on the Chesil bank. V. De la Beche).**' Ask Capt. F. : R:^' how the swell, generally & during gales would tend to travel on a central line of Patagonia. fNB. M"" Lyell P. 211 Vol III. talks of line of cliff marking a pausej** When mentioning pumice of Bahia Blanca, mention black scoria- ceous rocks of R Chupat. & fall of Ashes of Falkner, S how far is the distance ? — *' | 68e Fossil bones black as if from peat. — yet cetaceous bones so likewise f of miocene periodj. — Mem Bahia blanca P. 204 Vol III. Lyell 90 Owing to fopenj faults in mountains: to elevated strata in eocene lakes of France, & unequal action of Farthquakes f on Chili & delta of IndusJ. my belief in submarine tilting alone, must be modified, f Moreover, the Volcanos from sea there burst out, after rise from sea : <^As did)> as did those aerial Volcanos in GcrmanyJ THE RED NOTEBOOK 49 In the Valle del Yeso it is probable that point of Porphyry has been upheaved in a dry form It is clear the forces have acted with far more regularity | in S. America ; in France we have freshwater lakes unequally elevated, which movements if present in the Andes, would have destroyed regularity of slope of valleys. — All my observations of period {"& mannerj of elevation Volcanic action, must be more exclusively confined to that country Read description of channels or grooves in rocks at Costorphine hills, to compare with Galapagos. — Chiloe. M. Hermoso. & Coral reefs (imperfect in latter). | Lyell. Vol I. P. 316. Earthquake of 1812 affected valley of Missisippi & New Madrid & Caraccas. — " Is this mentioned by Humboldt in his account of extensive areas. — ^^ P. 322 In any archipelago. & neighbouring Volcanos. eruption from /fmore thanj one orifice does not occur at same time: this is contrasted to contemporaneous action over larger spaces of the globes & "periods" of increased activity. — '^ such as that of 1835. — State the three /for 4j fields of Earthquakes in Chili : — | Chiloe. Concepcion. Valparaiso (Copiapo & Guasco). yet whole territory vibrates from any one shock — In S. America — continuity of space in formations & durability of similar causes go together, add. <^"from) "in the same line" to "from the epoch of Ammonite to the present day. at Mauritius, (consult Bory''* /f^ip of strata on EastJ) cannot believe in a great explosion, nor would sea remove more internally than externally — I did not see any number of dikes in the | cliffs. — wide valleys. — central peak small; yet great body of lavas have flowed from centre — Pisolitic balls occur in the Ashes which fill up theatre of Pompeei (.?). — Such have been seen to form in atmosphere. — Mem. Ascencion. concretions & Galapagos. — Humboldts. fragmens.'^ 50 SANDRA HERBERT Read geology of N. America. India. — remembering S. Africa. Australia. . Oceanic Isles. Geology of whole world will turn out simple. — I 73 Fortunate for this science, that Europe was its birth place. — Some general reflections might be introduced on great size of ocean; especially Pacifick : insignificant islets — general movements of the earth ; — Scarcity of Organic remains. — Unequal distribution of Volcanic action, Australia S. Africa — on one side. S. America on the other : The extreme frequency of soft materials being consoli- dated ; one inclines to belief all strata of Europe formed near coast. Humboldts quotation of instability of ground at present, day. — applied by me geologically to vertical movements.'* | 74 In Cord : after seeing small Bombs, without a vesicle, we may consider appearances of eruption at bottom. — solution under high pressure of gazes, especially the most abundant. Sulp. Hyd ; Carb : A. Mur: A. = (& this effect of water thus holding matter in solution must be great: & in the fact of bombs in tufa there is proof of such gaz) steam condensed. — Perhaps these mighty changes might go on. & not a bubbles on the surface bespeak ihe changes. — f metallic veins solution of silex & many other phenomena. J"' | 75 I do not believe that the extraordinary fissures of the ground at Calabria were present at the Concepcion earthquake. — expatiate on difficulty of evidence about eruptions of Volcanos. (where there are no country newspapers) — At the Calabrian earthquake things pitched off the ground. Ulloa states that Volcanos ! ! were in eruption at time of great Lima earthquake'^ In the Chili earthquakes if rise was more P. 209. 211. 213. 444 /JYanky editionJ"5 Shores of Pacifick, as compared to whole K. .America. Africa. Australia, profoundly deep: a great fault or ratlicr many faults. — THE RED NOTEBOOK 57 99e Necessary form; as long as coast line fixed. — QFig. 5] ff?^7>K i-cve/ of *« Sct«,^-. jfe,*^ A-^'^'-c^ < -■-.iv-Cas Pages 127-128 on the species question. - / 1 IsL- South Shetland Cape Possession. Syenite S Andite ? — ^^^ | 139 Degrading of inland bays, like St. Julian & Port Desire applicable to Craters of Elevation. — The longer diameter of Deception Is* is six Geographical miles and width 2 & 1/2 miles'** S. Shetland. Lat. 62° 55'. one lichen only production, a body which had long been buried, from rotten state of coffin f buried in a moundj long consigned to the earth, yet body had scarcely undergone any decomposition : countenance so well preserved, that it was thought not to have belonged to an Englishmen. — On 8th of March cove began to freeze, correspond fto Septemberji*'' | 140e SDid I make any observations on springs at S. Cruz.??? — Form of land shows subsidence in T. del Fuego, and connection of quadrupeds. — although recent elevation, there may have been great subsidence previously. Mem. pebbles of Porphyry. — Falklands. — off" East Coast. — Capt. Cook found soundings, (end of 2* voyage outside coast of T. del Fuego. off. Christmas sound. — '^^ {"(Think some 60 fathoms, none thicker than thumbj Sea weed said at Kerguelen Is* to grow on shoals like Fucus giganteus! 24 fathoms deep 24 ] 14 le under 50. Kerguelen Land, = the way it stands gales = very strong. Stones as bigger than a man's head. —["Kerguelen 40 by 20 leagues, dimensions :J'*' Bynoe informs me that in Obstruction Sound, in the narrow- parts which break through the N & South lines the tides form eddies with its extreme force. I'O Yet, no outlet at head. Important in forming transverse valleys Ice I 142e Sir W. Parish says they have Earthquakes in Cordoba, one of which dried up a lake in neighbourhood of town''" THE RED NOTEBOOK 69 M'' Murchison insisted strongly, that taking up a piece of Falkland Sandstone, he could not distinguish from stone Caradoc from lower of third Silurian division — Together with same general character of fossils deception complete. — ^'^ Silliman Journal, year 1835 excellent account of N. American geology. Conybeare^'^ | 1436 Lava in Cordillera & on Eastern plains /^by AntucoJ. Athenseum April 1836 (p 302)1'''' Coleccion de obras. 2 Vols fol: Buenos Ayres 1836 :"5 w. Parish.?? /fby Pedro de Angelis.J'''^ This work is reviewed in present Edinburgh March 1835'^' Sir W. Parish says, that beds of shells are found on whole coast from P. Indio to Quilmes. & at least seven miles inland. •''* | 144e The Cordoba earthquake a very remarkable phenomenon, showing line of disturbance inside Cordillera; It is not therefore so wonderful that volcanic rocks at M. Video /^Volcano in PampasJ Pasto Earthquake. Happened on January 20'". 1834 rvf Sowerby. younger, says that Falkland fossils decidedly belong to old Silurian system.'™ Apply degradation of landlocked harbors to Craters of eleva- tion. — I I45e Lyell suggested to me that no metals in Polynesian Isl"^ — .'*" Volcanic plenty in S. America ! ! Metamorphic | 146 Volcanos only burst out where strata in act of dislocation (NB. dislocation connected with fluidity of rock .'. fin earliest stagej when covered up beneath ocean). — The first dislocations & eruptions can only happen during first movements, and therefore beneath ocean, for subsequently there is a coating of solidifying igneous rocks which would be too thick to be penetrated by the repeted trifling injections. — Old vents would keep open long after emersion, but improbably so long, that to be surrounded by continent. — change of volcanic focus. — | 70 SANDRA HERBERT l+T <(it is certain, if strata can be) Problem dislocate strata without ejection of the fluid propelling mass. If one inch can be raised then all can, for fresli layers of igneous rock replace strata. & it is nothing odd to find them injected by veins & masses QFig. 8J (A.B.C. now grown solid.) | 14-8 Red Sea near Kosir, land appears elevated. Geograph. Journal p '202 Vol IV'si When recollecting Gulf of California. Beagle Channel. — One need never be afraid of speculating on the sea | 149 The 24 ft. elevation at Concepcion. from impossibility of such change having taken place unrecorded must be insensible. Quantity of matter from Cordillera, horizontal movement of fluid matter not (for instance) expansion of solid matter by Heat | 150 Consider profoundly tlie sandstone of the Portillo line. — connected with '*' 72 SANDRA HERBERT gradual shoaling of coasts 93 action of sea on coast. 27. Bahama Is* | 181 De Lues travels^^s Beauforts Karamania^^* Capt. Ross.^^' & Scoresby^^* deep soundings Gilbert Farquhar Mathison travels Brazil. Peru. Sandwich /:isdJ239 Mawes travels down the Brazil. — ^'"' Did Melaspena publish his travels.''^'" | Bellinghausen in I819^''2 Kotzebue 18 16^''^ I inside Constant log always additive to convert French Toise into back English [h.J 0.8058372 cover French metre into English ft. 0.5159929 Myriametre = Kilometre Hectometre Metre Decimetre Centimetre [C DarwinJ Toises 5130., 513., 51. Pieds 4. 0. 1. 3. 5 inches 5 10 0. 3.8 1 1 lines 4.4 back cover R.N. Range of Sharks {"Nothing For any PurposeJ The back cover of the Red Notebook, labelled 'R.N.', with the additional notations 'Range of Sharks' and 'Nothing For any Purpose". Editor's Notes ^ Jean Francois d'Aubuisson de Voisins, Traits de geognosie. 2 vols. (Strasbourg, 1819). ^ Juan Ignacio Molina, Compendio de la historia geografica . . .del reyno de Chile (Madrid, 1788), vol. 1. ^ Sir Charles Lyell, F.R.S. (1797-1875), prominent British geologist, twice president of the Geological Society of London (1835-1837, 1849-1851), and author of the Principles of Geology. 3 vols. (London, 1830, 1832, 1833). This work exercised a formative influence on the development of geology as a science in the nineteenth century and on the career of Charles Darwin, F.R.S. (1809-1882). This entry in the notebook is in light brown ink. * Lyell, Principles of Geology. This entry is in light brown ink, and written over the immediately preceding series of dates. The dates pertain to the departure of H.M.S. Beagle from England. The Beagle sailed from England Tuesday 27 December 1831. The ship encountered heavy seas, caused by gales elsewhere, on Thursday 29 December 1831. For Darwin's description of the Beagle's departure see his letter to his father of 8 February-1 March 1832 in Nora Barlow, ed., Charles Darwin and the Voyage of the Beagle (London, 1945), p. 52. Also see N. Barlow, ed., Charles Darwin's Diary of the Voyage of H.M.S. Beagle (Cambridge, 1933), pp. 18-19. Darwin could have recorded the date of the Beagle's departure in this notebook at any time during the voyage. ^ The probable stimulus for this passage was Christian Gottfried Ehrenberg, ' On the Origin of Organic Matter from simple Perceptible Matter, and on Organic Molecules and Atoms; together with some Remarks on the Power of Vision of the Human Eye' in Richard Taylor, ed., Scientific Memoirs (London, 1837), vol. 1, pp. 555-576. This entry is in light brown ink, indicating a later dating than the original entries on this page. ® Jacques Julien Houton de Labillardiere, Relation du voyage a la recherche de La Perouse...l791-[\794-] (Paris, 1800), vol. 1, p. 287: "Je revis le fucus que j'avois auparavant rencontre tout pres de la Nouvelle-Guinee; il ressemble k de I'etoupe tres-fine coupee par petis morceaux longs d'environ trois centimetres: ce sont des filamens aussi fins que des cheveux. On les voyoit souvent reunis en faisceaux, et si nombreux qu'ils ternissoient I'eau de la rade." 'John Stevens Henslow, 'Geological Description of Anglesea', Transactions of the Cambridge Philosophical Society, vol. 1 (1821-1822), p. 379: "The major axis of 82 SANDRA HERBERT some of the larger nodules is two feet and a half, and the minor one foot and a half; and the conical structure extends to the depth of three or four inches. The direction of the longer axis is placed parallel to the schistose laminae, which pass round the nodules." ® William Fitton, 'Geology' in Phillip P. King, Narrative of a Survey of the Intertropical and Western Coasts of Australia Performed between the Years 1818 and 1 822 {'London, 1827), vol. 2, p. 585: "The Epidote of Port Warrender and Careening Bay, affords an additional proof of the general distribution of that mineral ; which though perhaps it may not constitute large masses, seems to be of more frequent occurrence as a component of rocks than has hitherto been supposed." * Henslow, 'Geological Description of Anglesea', p. 403: "Carbonate of lime is very generally disseminated through every part [of the Plas-Newydd dike]." ^° Henslow, 'Geological Description of Anglesea', p. 417; "The most interesting phenomena exhibited by this dyke, are the various changes which it assumes in its mineral character." ^^ Henslow, 'Geological Description of Anglesea', p. 434: "Through this dyke there run several veins of quartz, which also abound in the surrounding rock, a fact which I do not recollect witnessing in anv other dyke in .Anglesea." Also p. 419: ".\t its [the dyke's] Northern termination the trap has been removed by the continued action of the sea, and its original walls, composed of quartz rock, form a small bay about eighty feet wide." ^^ Henslow, 'Geological Description of Anglesea', p. 375: "As the limestone passes into the schist [at Gwalchmai], it assumes a fissile character, and scales of chlorite are dispersed over the natural fractures." ^^ Henslow, 'Geological Description of Anglesea', p. 432: "The whole [mass of trap] assumes a greenish tinge, but the colouring substance does not appear to be of a very crystalline nature, and is probably chlorite." '* See William Dampier, A New Voyage round the World (4th ed.; London, 1698-1703), vol. 2 [1699], part 3 subtitled: A Discourse of Trade-Winds, Breezes, Storms, Seasons of the Year, Tides and Currents of the Torrid Zone throughout the World: With an Account of Natal in Africk, its Product, Negro's, &c. ^^ Constantin Francois Volney, Voyage en Syrie et en Egypte. . .1783-1785 (2nd ed. rev.; Paris, 1787), vol. 1, chapter 20 the section entitled 'Des vents', and chapter 21 entitled 'Considerations sur les phenomenes des vents, des nuages, des pluies, des brouillards et du tonnerre'. ^^ Dampier, A New Voyage round the World, vol. 3 [1703], p. 125: "Of the Sharks we caught a great many, which our Men eat very favourily. Among them we NOTES 83 caught one which was 11 Foot long." I have not found an edition of this work which fits Darwin's page citation exactly. (Ed.) " Dampier, A New Voyage round the World, vol. 3 [1703], pp. 125-126: "Its Maw was like a Leather Sack, very thick, and so tough that a sharp Knife could scarce cut it: In which we found the Head and Boans of a Hippopotomus; the hairy Lips of which were still sound and not putrified, and the Jaw was also firm, out of which we pluckt a great many Teeth, 2 of them 8 Inches long, and as big as a Mans Thumb, small at one end, and a little crooked; the rest not above half so long. The Maw was full of Jelly which stank extreamly:. . .'Twas the 7th of August when we came into Shark's Bay;. . . " 18 Dampier, A New Voyage round the World, vol. 3 [1703], p. 114: "At about 30 Leagues distance [from the Abrolhos shoals] we began to see some Scutle-bones floating on the Water; and drawing still nigher the Land we saw greater quantities of them." Also p. 115: "The 30th oijuly, being still nearer the Land, we saw abundance of Scutle-bones and Sea-weed, more Tokens that we were not far from it;. . . " 1® Capt. Samuel P. Henry (1800-1852), author of Sailing Directions for Entering the Ports of Tahiti and Moorea (London, 1852) ; personal communication. Darwin met Capt. Henry and his father, a missionary, at Tahiti. See Robert Fitzroy, ed. Narrative of the Surveying Voyages of His Majesty's Ships Adventure and Beagle. . . 1826-1836 (London, 1839), vol. 2, pp. 524, 546, 615; and John Williams,^ Narrative of Missionary Enterprises in the South Sea Islands (London, 1837), p. 471 . ^° Labillardiere, Relation du voyage a la recherche de La Perouse, vol. 1, p. 394: "L'ilot sur lequel nous etions est compose d'un beau granit, oil le quartz, le feld-spath et le mica dominent;. . ." and, p. 395, "La partie occidentale de cet ilot offre, dans un des points les plus eleves un plateau de pierre calcaire. ..." 21 Dampier, A New Voyage round the World, vol. 3 [1703], p. 151: "The Land hereabouts was much like that part of New Holland that I formerly described.. . .'tis low, but seemingly barricado'd with a long Chain of Sand-hills to the Sea, that let's nothing be seen of what is farther within Land." 22 Jean Fran9ois Galaup de La Perouse, A Voyage round the World Performed in the Years 1785, 1786, 1787, and 1788 (London, 1799), vol. 2, p. 179: "From Norfolk Island, till we got sight of Botany Bay, we sounded every evening with a line of two hundred fathoms, but we found no bottom till we were within eight leagues of the coast, when we had ninety fathoms of water." 2^ Frederick William Beechey, Narrative of a Voyage to the Pacific and Beering's Strait. . . 1825, 26, 27, 25 (Philadelphia, 1832). See note 59. This entry is in light brown ink. 84 SANDRA HERBERT ^^ The sequence of points on this list runs from south to north along the Brazilian coastline. Place-names and latitudes were checked against British Admiralty charts of the period. Useful in this regard was the Index to Admiralty Published Charts, (London, 1874) published by the Hydrographic Office. A bar with a dot over a number indicates that no bottom was found at that depth. Undoubtedly Darwin compiled this list from information available to him aboard ship. ^® This entry is in light brown ink. As a later addition it would appear to be a correction to the two figures immediately following, although only the '60' is actually cancelled. The sense of the passage would be that at 18-20 leagues from shore no bottom was found at 120 fathoms. 2' Probably Robert Fitzroy, F.R.S. (1805-1865), Captam of H.M.S. Beagle during its surveying voyage of 1831-1836, later vice-admiral in the navy and a meteoro- logist of considerable repute. It was with Fitzroy's assent that Charles Darwin became the Beagle's naturalist. For reference to Fitzroy's account of the Beagle's voyage see note 19. ^' Mrs Power, presumably a resident of Port Louis, Mauritius; personal com- munication. Mrs Power is not mentioned otherwise in Darwin's notes. ^^ The shipwrecked crew of the H.M.S. Wager identified their position as 47° 00' S., 81° 40' W. Capt. Fitzroy recalculated the probable position of the ship as 47° 39' 30" S., 75° 06' 30" W. See John Bulkeley and John Cummins, A Voyage to the South- Seas. . .1740-1 (London, 1743), p. 48; and Fitzroy, ed.. Narrative of the Surveying Voyages of His Majesty's Ships Adventure and Beagle . . . 1826-1836, appendix to vol. 2, p. 78. The earthquakes of August 25, 1741 experienced by the shipwrecked crew of the Wager were described as "four great Earthquakes, three of which were very terrible; notwithstanding the violent Shocks and Tremblings of the Earth, we find no Ground shifted. Hard Gales of Wind at North, with heavy Showers of Rain." (Bulkeley and Cummins, p. 70.) Also see JR, p. 287. ^° Henry Thomas De La Beche, A Geological Manual (London, 1831), sections 5-10. ^' De La Beche, A Geological Manual, section 3, ' Erratic Blocks and Gravel '. In his treatment of the subject De La Beche did not discuss the shapes of individual pieces of gravel. ^^ Robert Were Fox, 'On the electro-magnetic properties of metalliferous veins in the mines of Cornwall', Philosophical Transactions of the Royal Society of London, vol. 120(1830), pp. 399-414. ^^ Joseph Carne, ' On the relative age of the Veins of Cornwall ', Transactions of the Royal Geological Society of Cornwall, vol. 2 (1822), pp. 49-128. NOTES 85 ^^ Baron Albin-Reine Roussin (1781-1854), French naval commander and later admiral, member of the Academie des Sciences, did not write a general account of the hydrographical expedition he led in 1819-1820 to South America. Darwin was already familiar with the technical publication stemming from the voyage, Roussin's Le Pilote duBresil (Paris, 1S26). ^^ William D. Conybeare and William Phillips, Outlines of the Geology of England and Wales (London, 1822), p. xii: ". . .one instance of a bone penetrated by silex has occurred to the author, on the beach at Reculver. The calcareous substance of shells, echinites, encrinites, corals, &c. in its slightest change seems only to have lost its colouring matter and gelatine; next they become impregnated with the mineral matrix in which they lie, especially if that matrix be calcareous; hence they become much more compact ; often at the same time their original calcareous matter undergoes a change of internal structure, assuming a crystalline form, and in some cases, viz. asteriae, encrinites, and echinites, a calcareous spar of very peculiar character results, of an opaque cream colour : . . . " ^^ Conybeare and Phillips, Outlines of the Geology of England and Wales, p. xv: "These consolidated gravel beds are called conglomerates, breccias, or pudding- stones; we find them among the transition rocks, in the old red sandstone, in the millstone-grit and coal-grits, in the lower members of the new red sandstone, in the sand strata beneath the chalk, and in the gravel beds associated with the plastic clay, and interposed between the chalk and great London clay." ^'^ Despite the faulty citation the reference is certainly to Joseph Jackson Lister, 'Some Observations on the Structure and Functions of tubular and cellular Polypi, and of Ascidias', Philosophical Transactions of the Royal Society of London, vol. 126 (1834), pp. 365-388. ^^ Alexander von Humboldt, Personal Narratitie of Travels to the Equinoctial Regions of the New Continent. . .1799-1804 (London, 1829), vol. 7, p. 56: "Farther south, towards Regla and Guanabacoa [to the east of Havana], the syenite disappears, and the whole soil is covered with serpentine, rising in hills from 30 to 40 toises high, and running from east to west." Darwin's copy of Humboldt's Personal Narrative is inscribed, "J. S. Henslow to his friend C. Darwin on his departure from England upon a voyage round the World. 21 Sept 1831." It consists of vols. 1-2, 3rded. ; vol. 3, 2nd ed.; vols. 4, 5, 6, 7, 1st ed. (London, 1819-1829). Alexander von Humboldt (1769-1859), a member of all major scientific academies, was the foremost scientific traveller of his day and a principal contributor to the science of geography. ^^ ['Proteus'], 'The Bahama Islands', United Service Journal and Naval and Military Magazine, vol. 3 (1834), p. 215: "[New Providence] is more hilly than most of the islands, the surface being composed of rock and sand intermixed with sea shells." Also see pp. 216 and 226 for mention of the banks. 86 SANDRA HERBERT " Sir John F. W. Herschel, F.R.S. (1792-1871), distinguished English astro- nomer and man of science; presumably personal communication. Darwin met Herschel — "the most memorable event which, for a long period, I have had the good fortune to enjoy" — sometime between 8-15 June 1836 during the Beagle's call at the Cape of Good Hope where Herschel was living, being then engaged in his four-year study of stars visible in the southern hemisphere. See Diary, p. 409. Months before, Herschel had described his new notion of the cause of volcanic action in a letter to Charles Lyell dated 20 February 1836. Probably he repeated the same explanation to Darwin in June. Herschel's letter to Lyell has been published by Walter F. Cannon in 'The Impact of Uniformitarianism', Proceedings of the American Philosophical Society, vol. 105 (1961), pp. 301-314. See, for example, Herschel's summary comment to Lyell on p. 310: "I don't know whether I have made clear to you my notions about the effects of the removal of matter from. . .above to below the sea. — P' it produces mechanical subversion of the equilibrium of pressure. — 2'^'^ it also, & by a different process (as above explained at large) produces a subversion of the equilibrium of temperature. The last is the most important. It must be an excessively slow process. & it will depend P' on the depth of matter deposited. — 2"* on the quantity of water retained by it under the great squeeze it has got — 3'"*' on the tenacity of the incumbent mass — whether the influx of caloric from below — which MUST TAKE PLACE acting on that water, shall either heave up the whole mass, as a new continent — or shall crack it & escape as a submarine volcano — or shall be suppressed until the mere weight of the continually accumulating mass breaks its lateral supports at or near the coast lines & opens there a chain of volcanoes." " Sir Andrew Smith, F.R.S. (1797-1872), English army medical doctor and zoologist, later director-general army medical department; personal communication. Darwin's Diary, p. 409, records for 8-15 June 1836: "During these days I became acquainted with several very pleasant people. With Dr A. Smith who has lately returned from his most interesting expedition to beyond the Tropic, I took some long geological rambles." On his return to England in 1837 Smith began work on his Illustrations of the Zoology of South Africa. 5 parts. (London, 1838-1 849). *^ The meaning of this entry is obscure. The H.M.S. Chanticleer did not stop at Pernambuco [Recife] during its 1828-1831 voyage, nor was Pernambuco on the Beagle's itinerary in June of 1836, when this entry was presumably made. In the narrative from the Chanticleer's voyage, however, there are passages which describe decomposing granitic rock at Rio de Janeiro, and refer to what seem to be related formations at Para [Belem] and Maranham [Sao Luis]. Given Darwin's apparent uncertainty in this entry about location, as indicated bv his two cancellations, it may have been these passages which he had in mind. See William H. B. Webster, Narrative of a Voyage to the Southern Atlantic Ocean. . . 1828-18.^0 [sic] (London, 1834), vol. 1, pp. 52-53: "The country about Rio in a geological point of view has large claims to attention. Granite and gneiss are the prevailing formation.. . .The rocks in some NOTES 87 parts are decomposed into sand and petunse; the sand having been carried down into the plains, while the petunse remains, and forms extensive beds of porcelain clay admirably adapted for the use of the potter. The lower parts of the granite hills were found chiefly in this condition; the granite having crumbled into micaceous sand and greasy unctuous clay." Also vol. 2, pp. 367: "The geology of Para will detain us a very little while; as there is very little variety or novelty. Precisely the same materials are found here as at Maranham, so that it would be impossible to distinguish them. It is a rare and unusual circumstance to find such a striking coincidence, in two different places. The soil upon which the city stands is of clay and sand. The beds of clay are very extensive, and frequently thirty or forty feet deep. There is scarcely any rock, and that only in particular and isolated masses; it is a coarse dark iron sand- stone, with numerous particles of quartz in it.. . .This dark iron sand-stone, with fragments of white quartz, is observable at Maranham, and is the predominant formation at St. Paul's, a little to the southward of Rio." *' The clipping, entitled 'Earthquake at Sea' is from the Carmarthen Journal, 3 April 1835. The story was reprinted verbatim from The Times (London), 28 March 1835, p. 5, with the unfortunate error of a lost digit in the quotation of the ship's latitude. The ship's coordinates as given in The Times were 18° 47' N., 61° 22' W., which would place the ship in the Atlantic Ocean to the northeast of the Leeward Islands, rather than, as in the incorrectly printed version, in Venezuela. *^ The H.M.S. Challenger ran aground on the Chilean shore at Punta Morguilla [Point Molguilla] (37° 46' S., 73° 40' W.) on 19 May 1835. See Fitzroy, ed.. Narrative of the Surveying Voyages of His Alajesty's Ships Adventure and Beagle, vol. 2, pp. 451-456. Capt. Fitzroy led the party which rescued the Challenger's crew. ^^ This paragraph is double scored in the left margin with brown ink. *^ In this series of place names the locations of Guacho and Washington are uncertain. There is presently a Quebrado del Guacho, a small stream, at 33° 58' S., 71° 09' W. in Chile, and a Cerro Guacho, a mountain, nearby. 'Washington' may refer to the Canal Washington at 55° 40' S., 67° 33' W. in Tierra del Fuego. *' Fitton, 'Geology', in King, Narrative of A Survey of the Intertropical and Western Coasts of Australia, vol. 2, p. 604: "The tendency of all this evidence is somewhat in favour of a general parallelism in the range of the strata, — and perhaps of the existence of primary ranges of mountains on the east of Australia in general, from the coast about Cape Weymouth to the shore between Spencer's Gulf and Cape Howe." And on p. 605: "If. . .future researches should confirm the indications above mentioned, a new case will be supplied in support of the principle long since advanced by Mr. Michell which appears (whatever theory be formed to explain it,) to be established by geological observation in so many other parts of the world, — that the outcrop of the inclined beds, throughout the stratified portion of the globe, is every 88 SANDRA HERBERT where parallel to the longer ridges of mountains, — towards which, also, the elevation of the strata is directed." ^8 Charles Daubeny, A Description of Active and Extinct Volcanos (London, 1826), p. 24: " It [a formation at the hill of Mouton] should be noticed, as one of the few localities in Auvergne where pumice is to be found, which seems the more remarkable, as this substance is a common product of that class of volcanos, which consists of trachyte." *9 This entry is in light brown ink. The back of page 1, of Darwin's geological notes on New Zealand is fol. 802 verso in the Darwin MSS, Cambridge University Library, vol. 37 (ii). The page contains a sketch of the silhouette of an island in the Bay of Islands, New Zealand. Darwin noted that at high water the island had the figure of a hill and at low water the figure of a hill surrounded by a level ledge of naked rock. He associated the formation of the ledge with the action of the tides. This page in Darwin's geological notes also contains a cross-reference to 'R.N.' page 38. 5° See GSA, pp. 25-26, for the published version of this description of the origin of the cliffs at St Helena. ^' Daubeny, Volcanos, reference uncertain, possibly to the author's representation of Humboldt's 'unpublished' views on pp. 345-351. 'Daubeny' is written in light brown ink. ^2 Humboldt, Personal Narrative, vol. 1, p. 171: "The Peak of Teneriffe, and Cotopaxi, on the contrary, are of very different construction. At their summit a circular wall surrounds the crater; which wall, at a distance, has the appearance of a small cylinder placed on a truncated cone." Also, with respect to the peak of Teneriffe, on p. 176: "The wall of compact lava which forms the enclosure of the Caldera, is snow white at it's surface. . . .When we break these lavas, which might be taken at some distance for calcareous stone, we find in them a blackish brown nucleus. Porphyry with basis of pitch stone is whitened externally by the slow action of the vapors of sulphurous acid gas." 53 Humboldt, Personal Narrative, vol. 1, pp. 219-232. 5* Daubeny, Volcanos, p. 349. Not easily summarized, see note 51. 5^ Daubeny, Volcanos, p. 361: "Humboldt gives us the following series of phsenomena, which presented themselves on the American Hemisphere between the years 1796 and 97, as well as between 1811 and 1812. 1796. — September 27. Eruption in the West India Islands; volcano of Guadaloupe in activity. November . . . The volcano of Pasto begins to emit smoke. December 14. Destruction of Cumana by earthquake. NOTES 89 1797. — February 4. . . Destruction of Riobamba by earthquake. 1811. — January 30... Appearance of Sabrina Island in the Azores. It increases particularly on the 15th of June. May Beginning of the earthquakes in the Island of St. Vincent, which lasted till May, 1812. December 16. Beginning of the commotions in the valley of the Mississippi and Ohio, which lasted till 1813. December . . . Earthquake at Carracas. 1812. — March 26. . . . Destruction of Caraccas; earthquakes which continued till 1813. April 30 Eruption of the volcano in St. Vincents'; and the same day subterranean noises at Caraccas, and on the banks of the Apure." ^^ Daubeny, Volcanos, pp. 382-383 : "With regard to the mineralogical characters of lava, I shall appeal to the authority of [Leopold] Von Buch.. . .Almost all lavas he conceives to be a modification of trachyte, consisting essentially of felspar united with titaniferous iron, to which they owe their colour and their power of attracting iron. . . . This felspar is derived immediately from trachyte, that being the rock which directly surrounds the focus of the volcanic action ; for if we examine the strata that successively present themselves on the sides of a crater, we are sure to find that the lowest in the series is trachyte, from which is derived by fusion the obsidian, as is the case at Teneriffe." Leopold von Buch (1774—1853), German geologist and mineralogist, a member of the Royal Academy of Berlin, was distinguished for the versatility of his interests in geology and for the high quality of his extensive field work. ^'' Daubeny, Volcanos, p. 386: " . . .in the collection of Dr. Thomson, now in the Museum of Edinburgh, there is said to be a fragment of lava enclosing a real granite, which is composed of reddish felspar with a pearly lustre like adularia, of quartz, mica, hornblende, and lazulite. I have likewise seen among the specimens from the Ponza Islands,. . .a piece of granite, or perhaps rather of a syenitic rock,. . .found in the midst of the trachyte from this locality. But the most interesting fact perhaps of this description, is. . .the presence of a mass of granite containing tin-stone, enveloped in the midst of a stream of lava from Mount /Etna. ... It may be remarked, that these specimens of granitic rocks have, in general, a degree of brittleness, which accords very well with the notion of their exposure to fire." ^° Lyell, Principles of Geology, vol. 1, p. 318 refers to Java "where there are thirty-eight large volcanic mountains, many of which continually discharge smoke and sulphureous vapours." This entry is written in light brown ink. 90 SANDRA HERBERT ^^ Beechey, Narrative of a Voyage to the Pacific and Beering's Strait, p. 209: "In latitude 60° 47' N. we noticed a change in the colour of the water, and on sounding found fifty-four fathoms, soft blue clay. From that time until we took our final departure from this sea the bottom was always within reach of our common lines. The water shoaled so gradually that at midnight on the 16th, after having run a hundred and fifty miles, we had thirty-one fathoms." P. 211: "We soon lost sight of every distant object, and directed our course along the land [St Lawrence Island], trying the depth of water occasionally. The bottom was tolerably even; but we decreased the soundings to nine fathoms, about four miles off the western point, and changed the ground from fine sand, to stones and shingle. When we had passed the wedged- shaped cliff at the north-western point of the island, the soundings again deepened, and changed to sand, as at first. . . . [Zoological specimens were procured] in seven- teen fathoms over a muddy bottom, several leagues from the island." P. 212-213: "In our passage from the St. Lawrence Island to this situation, the depth of the sea increased a little, until to the northward of King's Island, after which it began to de- crease; but in the vicinity of the Diomede Islands, where the strait became narrowed, it again deepened, and continued between twenty-five and twenty-seven fathoms. The bottom, until close to the Diomedes, was composed of fine sand, but near them it changed to course stones and gravel, as at St. Lawrence Island.. . ." P. 213: "Near the Asiatic coast we had a sandy bottom, but, in crossing over the [Beering's] strait, it changed to mud, until well over on the American side, where we passed a tongue of sand and stones in twelve fathoms which, in all probability, was the ex- tremity of a shoal, on which the ship was nearly lost the succeeding year. After crossing it, the water deepened, and the bottom again changed to mud, and we had ten and a half fathoms within two and a half miles of the coast." P. 444: " In this parallel [61° 58' N] the nearest point of land bearing N. 74° W. true, thirteen miles, the depth of water was 26 fathoms; and it increased gradually as we receded from the coast. . . .We made the land [St Lawrence Island] about the same place we had done the preceding year, stood along it to the northward, and passed its N.W. extreme, at two miles and a half distance, in 15 fathoms water, over a bottom of stones and shells, which soon changed again to sand and mud.. . .On the after-noon of the 2d we. . .anchored off Point Rodney. . .in seven fathoms, three miles from the land.. . ." '^° In 'at' an upper case 'a' has been superimposed on a lower case 'a'. ®^ The 'turn over' indicates that the entry continues on the next page. The entire paragraph at the bottom of page 45e is scored for emphasis in light brown ink. ^^ The quotation is from Daubeny, Volcanos, p. 402 which summarizes the argument presented in Conybeare and Phillips, Outlines of the Geology of England and Wales, p. XX. ®^ The question mark is written in light brown ink. «^ See note 62. NOTES 91 ^^ See Daubeny, Volcanos, p. 438 for the following note: "Cet endroit [near the Red Sea] recouvert de sable, environne de rochers bas en forme d'amphitheatre, offre une pente rapide vers la mer dont il est eloigne d'un demi mille, et peur avoir trois cent pieds de hauteur sur quatre-vingts de largeur. On lui a donne la nom de Cloche, parcequ'il rend des sons, non comme faisait autrefois la statue de Memnon, au lever du soleil, mais a toute heure do jour et de la nuit et dans toutes les saisons. La premiere fois qu'y alia M. Gray, il entendit au bout d'un quart d'heure un son doux et continu sous ses pieds, son, qui en augmentant ressembla a celui d'une clocha qu'on frappe, el qui devient si fort en cinq minutes, qu'il fit detacher du sable, et effraya les chamaux jusqu'a les mettre en fureur." Also see JR, p. 441. ®* Volney, Voyage en Syrie et en Sgypte, vol. 1, p. 351 with reference to the deserts of Syria: "Presque toujours egalement nue, la terre n'offre que des plantes ligneuses clair-semees, et des buissons epars, dont la solitude n'est que rarement troublee par des gazelles, des lievres, des sauterelles et des rats." ^^ Lyell, Principles of Geology, vol. 2, chap. 11 bears the following summary heading: "Theory of the successive extinction of species consistent with their limited geographical distribution — The discordance in the opinions of botanists respecting the centres from which plants have been diffused may arise from changes in physical geography subsequent to the origin of living species — Whether there are grounds for inferring that the loss from time to time of certain animals and plants is compensated by the introduction of new species? — Whether any evidence of such new creations could be expected within the historical era, even if they had been as frequent as cases of extinction? — The question whether the existing species have been created in succession can only be decided by reference to geological monuments." ^^ In this case 'from' is written over 'the'. 69 John Miers, Travels in Chile and La Plata (London, 1826), vol. 1, p. 77: "About two miles to the eastward of Barranquitos [32° 35' S., 64° 20' W.] I picked out of the sand a small fragment of quartz, about half the size of a hazel nut. This was the first pebble or stone of any sort 1 had seen since I left Buenos Ayres." ''" Charles Marie de La Condamine, A Succinct Abridgment of a Voyage Made within the Inland Parts of South-America (London, 1747), p. 24: "Below Borja, even for four or five hundred leagues, a stone, even a single flint, is as great a rarity as a diamond would be. The savages of those countries don't know what a stone is, and have not even any notion of it. It is diversion enough to see some of them, when they come to Borja, and first meet with stones, express their admiration of them by signs, and be eager to pick them up; loading themselves therewith, as with a valuable merchandize; and soon after despise and throw them away, when they perceive them to be so common." See JfR, p. 289. 92 SANDRA HERBERT '" The phrase 'Carnatic | It has been common practice of geologists' appears in very small handwriting in light brown ink, which indicates that it was written some time after the other entries on pages 56e-57. Fortunately, however, despite the fragmentary nature of the entry, there exists a reference in Darwin's notes from the voyage, again by way of addition made in light brown ink, which identifies the use of 'Carnatic' in this context. See Darwin MSS, Cambridge University Library, vol. 33, fol. 115 verso, for citation of the following reference. James .Allardyce, 'On the Granitic Formation, and direction of the Primary Mountain Chains, of Southern India', Madras Journal of Literature and Science, vol. 4 (1836), pp. 332-333: "It has been remarked that granite in America is found at a much lower level than in Europe : this is also the case throughout the south of India, by granite — meaning always granitic rocks; for a regularly crystallized compound of quartz, felspar and mica, is not to be expected. The Carnatic, and several other similar tracts, occurring along both coasts, are, as granitic plains, surprisingly level: the slight tertiary diluvium with which they are covered, cannot be considered as a principal cause of this uniformity, for the rock itself is everywhere found near the surface : every appearance here indicates the granitic formation has at one time been a great deal more flat than it is generally understood to have been." ''^ Lyell, Principles of Geology, vol. 3, p. 84 :" It is clear, from what we before said of the gradual manner in which the principal cone [of Etna] increases, partly by streams of lava and showers of volcanic ashes ejected from the summit, partly by the throwing up of minor hills and the issuing of lava-currents on the flanks of the mountain, that the whole cone must consist of a series of cones enveloping others, the regularity of each being only interrupted by the interference of the lateral volcanos." ''^ This question mark and a line of scoring alongside the preceding sentence are in light brown ink. ''* 'Rapilli' was equivalent in meaning to 'lapilli'. See, for example, the use of 'rapilli' by Daubeny {Volcanos, p. 251) and Humboldt {Personal Narrative, vol. 1, p. 232). ''^ This entry is in light brown ink. '^ An oval depression towards the eastern end of Ascension Island was described by the resident English marines as the cricket ground because "the bottom is smooth and perfectly horizontal." See Darwin MSS, Cambridge University Library, vol. 38(ii), fol. 941 verso. ''"' Lyell, Principles of Geology, vol. 3, p. Ill begins the section entitled "Sea- cliffs — proofs of successive elevation." Lyell's point is stated most succinctly on page 113 where he cites the testimony of another author writing on the alterations produced by the sea on calcareous rocks on the shores of Greece "that there are four or five NOTES 93 distinct ranges of ancient sea cliffs, one above the other, at various elevations in the Morea, which attest as many successive elevations of the country." ''^ In this passage Darwin would seem to be addressing Lyell's argument {Principles of Geology, vol. 3, p. 114) that " . . .a country that has been raised at a very remote period to a considerable height above the level of the sea, may present nearly the same external configuration as one that has been more recently uplifted to the same height." ''^ Lyell, Principles of Geology vol. 3, p. 116: ". . . we have seen [for the newer Pliocene] that a stratified mass of solid limestone, attaining sometimes a thickness of eight hundred feet and upwards, has been gradually deposited at the bottom of the sea, the imbedded fossil shells and corallines being almost all of recent species. Yet these fossils are frequently in the state of mere casts, so that in appearance they correspond very closely to organic remains found in limestones of very ancient date." °° Rene Primevere Lesson and Prosper Garnot, Voyage autour du monde . . .1822- 1825. Zoologie (Faris, 1826), vol. 1, part 1, p. 14: ". . .mais il est a remarquer que cette lie vaste et composee de deux terres separees par un detroit, quoique rapprochee de la Nouvelle-Hollande et par la meme latitude, en differe si completement, qu'elles ne se ressemblent nullement dans leurs productions vegetales. Toutefois la Nouvelle- Zelande, si riche en genres particuliers a son sol et peu connus, en a cependant d'indiens, tels que des piper, des olea, et une fougere reniforme qui existe, a ce qu'on assure, a I'ile Maurice." Also p. 22: "II est a remarquer qu'on ne connait aucun quadrupede comme veritablement indigene de la Nouvelle-Zelande, excepte le rat, si abondamment repandu sur les iles de I'Oceanie, comme sur presque I'univers entier." °' Molina, Compendio de la historia geografica . . .del reyno de Chile, vol. 1, p. 30: "La erupcion mas famosa de que tenemos noticia, fue la del volcan del monte de Peter oa, que el dia tres de Diciembre del ano 1762 se abrio una nueva boca 6 cratera, hendiendo en dos partes un monte contiguo por espacio de muchas millas. El estrepito fue tan horrible, que se sintio en una gran parte del Reyno, pero no causo vibracion alguna sensible. Las cenizas y las lavas rellenaron todos los valles inmediatos, y aumentaron por dos dias las aguas del rio Tingiririca; y precipitandose un pedazo de monte sobre el gran rio Lontue, suspendio su corriente por espacio de diez dias, y estancadas las aguas, despues de haber formado una dilatada laguna que existe en el dia, se abrieron por ultimo con violencia un nuevo camino, e inundaron todos aquellos campos." Darwin noted this passage in his own copy of the work with the remark, "P 30 — Piteron Earthquake caused lake & deluge — state of valleys." This entry is in light brown ink. ^^ Lyell, Principles of Geology, vol. 3, p. 124: "Towards the centre [of the dikes at Somma, the ancient cone of Vesuvius] . . . the rock is coarser grained, the component elements being in a far more crystalline state, while at the edge the lava is sometimes 94 SANDRA HERBERT vitreous and always finer grained. A thin parting band, approaching in its character to pitchstone, occasionally intervenes on the contact of the vertical dike and intersected beds. M. Necker mentions one of these at the place called Primo Monte, in the Atrio del Cavallo; I saw three or four others in different parts of the great escarpment." ^^ William F. W. Owen, Narrative of Voyages to. . .Africa, Arabia, and Mada- gascar (London, 1833), vol. 2, pp. 274—275: "[at Benguela]. . .the elephants were likewise common, but at present are scarce. A number of these animals had some time since entered the town in a body, to possess themselves of the wells, not being able to procure any water in the country. The inhabitants mustered, when a desperate conflict ensued, which terminated in the ultimate discomfiture of the invaders, but not until they had killed one man and wounded several others." ^* Lyell, Principles of Geology, vol. 2, p. 189: "Thousands of carcasses of terres- trial animals are floated down every century into the sea, and, together with forests of drift-timber, are imbedded in subaqueous deposits, where their elements are im- prisoned in solid strata. . .." Also p. 247: ". . .we see the putrid carcasses of dogs and cats, even in rivers, floating with considerable weights attached to them. ..." °^ Claude Gay, 'Aperq:u sur les recherches d'histoire naturelle faites dans I'Amerique du sud, et principalement dans le Chili, pendent les annees 1830 et 1831 ', Annales des sciences naturelles, vol. 28 (1833), p. 371 : "Ces contrees [Rio de Janeiro, Monte Video, Buenos Aires] m'offrirent aussi une assez belle collection d'insectes et plusieurs coquilles fluviatiles et marines, telles que des Mytilus, des Solens, des Ampullaires, etc., qui offraient ce phenomene digne de remarque, de vivre pele-mele dans les eaux simplement saumatres." See JR, p. 24. ^^ De La Beche, Geological Manual, p. 73: "The Chesil Bank, connecting the Isle of Portland with the main land, is about sixteen miles long, and. . .the pebbles increase in size from west to east. . .The sea separates the Chesil Bank from the land for about half its length, so that, for about eight miles, it forms a shingle ridge in the sea. The effects of the waves, however, on either side are very unequal; on the western side the propelling and piling influence is considerable, while on the eastern, or that part between the bank and the main land, it is of trifling importance." «■' Capt. Robert Fitzroy (note 27). ^^ Lyell, Principles of Geology, vol. 3, pp. 210-211: "The situation of this cliff [at Dax, France], is interesting, as marking one of the pauses which intervened between the successive movements of elevation whereby the marine tertiary strata of this country were upheaved to their present height, a pause which allowed time for the sea to advance and strip off the upper beds a,b, from the denuded clay c." NOTES 95 Z^ Section of Inland cliff at Abesse, near Dax. a, Sand of the Landes. b, Limestone. c, Clay. ^^ Thomas Falkner, A Description of Patagonia (London, 1774), p. 51 : "Being in the Vuulcan, below Cape St. Anthony, I was witness to a vast cloud of ashes being carried by the winds, and darkening the whole sky. It spread over great part of the jurisdiction of Buenos-Ayres, passed the River of Plata, and scattered it's contents on both sides of the river, in so much that the grass was covered with ashes. This was caused by the eruption of a volcano near Mendoza; the winds carrying the light ashes to the incredible distance of three hundred leagues or more." ^^ Lyell, Principles of Geology, vol. 3, p. 204: "Some of these bones [in certain strata in the basin of the Loire] have precisely the same black colour as those found in the peaty shell-marl of Scotland ; and we might imagine them to have been dyed black in Miocene peat which was swept down into the sea during the waste of cliffs, did we not find the remains of cetacea in the same strata, bones, for example, of the lamantine, morse, sea-calf, and dolphin, having precisely the same colour." ^^ Lyell, Principles of Geology, vol. 1, p. 316: "We have before mentioned the violent earthquakes which, in 1812, convulsed the valley of the Mississippi at New Madrid, for the space of three hundred miles in length. As this happened exactly at the same time as the great earthquake of Caraccas, it is probably that these two points are parts of one continuous volcanic region. ..." *^ Humboldt, Personal Narrative, vol. 4, pp. 11-12: "The extraordinary com- motions felt almost continually during two years on the borders of the Missisippi and the Ohio, and which coincided in 1812 with those of the valley of Caraccas, were preceded at Louisiana by a year almost exempt from thunder storms." ^^ Lyell, Principles of Geology, vol. 1, pp. 321-322: "Syria and Palestine abound in volcanic appearances, and very extensive areas have been shaken, at different periods, with great destruction of cities and loss of lives. It has been remarked . . . that from the commencement of the thirteenth to the latter half of the seventeenth century, there was an almost entire cessation of earthquakes in Syria and Judea; and, during this interval of quiescence, the Archipelago, together with part of the adjacent coast of Lesser Asia, as also Southern Italy and Sicily, suffered extraordinary convulsions; while volcanic eruptions in those parts were unusually frequent. A more extended comparison. . .seems to confirm the opinion, that a violent crisis of commotion never 96 SANDRA HERBERT visits both at the same time. It is impossible for us to declare, as yet, whether this phenomenon is constant in this, or general in other regions, because we can rarely trace back a connected series of events farther than a few centuries; but it is well known that, where numerous vents are clustered together within a small area, as in the many archipelagos for instance, two of them are never in violent eruption at once." ^^ Jean Baptiste Bory de Saint- Vincent, Voyage dam les quatre principales ties des mers d'Afrique. . .1801-1802 (Paris, 1804), vol. 1, chap. 6 describes the physical geography of Mauritius but does not answer Darwin's question directly. While at Mauritius Darwin was unable to inspect the entire island himself and sought informa- tion from other sources. See VI, pp. 28-31 and pp. 118-120 of this notebook. *^ Alexander von Humboldt, Fragmens de geologie et de dimatologie asiatiques. 2vols. (Paris, 1831). ^^ The exact quotation is uncertain, but the following sentence suggests Hum- boldt's views {Fragmens. . .asiatiques, vol. 1, pp. 5-6): "La volcanicite, c'est-a-dire, I'influence qu'exerce I'interieur d'une planete sur son enveloppe exterieure dans les difTerens stades de son refroidissement, a cause de I'inegalite d'agregation (de fluidite et de solidite), dans laquelle se trouvent les matieres qui la composent, cette action du dedans en dehors (si je puis m'exprimer ainsi) est aujourd'hui tres affaiblie, restreinte a un petit nombre de points, intermittente, moins souvent deplacee, tres simplifiee dans ses effets chimiques, ne produisant des roches qu'autour de petites ouvertures circulaires ou sur des crevasses longitudinales de peu d'etendue, ne manifestant sa puissance, a de grandes distances, que dynamiquement en ebranlant la croute de notre planete dans des directions lineaires, ou dans des etendues (cercles d'oscillations simultanees) qui restent les memes pendant un grand nombre de siecles." ''' This entry is written in brown ink. *^ George Juan and Antonio de Ulloa, A Voyage to South America (4th ed.; London, 1806), vol. 2, p. 84: "According to an account sent to Lima after this accident, a volcano in Lucanas burst forth the same night and ejected such quantities of water, that the whole country was overflowed; and in the mountain near Patas, called Conversiones de Caxamarquilla, three other volcanoes burst, discharging frightful torrents of water. ..." '^ George Poulett Scrope, Considerations on Vokanos (London, 1825), chap. 2, sections 41-42 including the statement on p. 60: "It is obvious how the powerful ascending draught of air which constitutes a hurricane, and which acts so strongly in depressing the barometer, will have an equal effect in setting loose the imprisoned w'inds of the earth." Also seejfR, p. 431. ^°° Lyell, Principles of Geology, vol. 3, p. 364: " If. . .we conceive it probable that plutonic rocks have originated in the nether parts of the earth's crust, as often as the NOTES 97 volcanic have been generated at the surface, we may imagine that no small quantity of the former class has been forming in the recent epoch, since we suppose that about 2000 volcanic eruptions may occur in the course of every century, either above the waters of the sea or beneath them." ^°' John Michell, 'Conjectures concerning the Cause, and Observations on the Phaenomena of Earthquakes; particularly of that Great Earthquake of the First of November 1755, which proved so fatal to the City of Lisbon, and whose Effects were felt as far as Africa, and more or less throughout almost all Europe', Philosophical Transactions of the Royal Society of London, vol. 51 (1760), p. 617: "The great earth- quake that destroyed Lima and Callao in 1746, seems also to have come from the sea; for several of the ports upon the coast were overwhelmed by a great wave, which did not arrive till four or five minutes after the earthquake began, and which was preceded by a retreat of the waters, as well as that at Lisbon." Darwin's own copy of this article was a reprint which had been repaginated by the printer and is separately bound ; this quotation appears on p. 54 of his copy. ^"^ Lyell, Principles of Geology, vol. 1, pp. 471-472: "Sometimes the rising of the coast must give rise to the retreat of the sea, and the subsequent wave may be occa- sioned by the subsiding of the shore to its former level ; but this will not always account for the phenomena. During the Lisbon earthquake, for example, the retreat preceded the wave not only on the coast of Portugal, but also at the island of Madeira and several other places." ^"^ Lyell did discuss 'partial shrinking after elevation', but, as Darwin's cancellation indicates, did not relate it to the existence of an underlying injected mass of fluid rock. See Lyell, Principles of Geology, vol. 1, p. 477: " It is to be expected, on mechanical principles, that the constant subtraction of matter from the interior will cause vacuities, so that the surface undermined will fall in during convulsions which shake the earth's crust even to great depths, and the sinking down will be occasioned partly by the hollows left when portions of the solid crust are heaved up, and partly when they are undermined by the subtraction of lava and the ingredients of decom- posed rocks." In his own copy of this work Darwin commented: "if there are hollows left what forces up the lava" and then crossed out his remark. A few pages previously (p. 468) he had challenged Lyell's association of the occurrence of submarine earth- quakes with the percolation of sea water to underlying masses of incandescent lava with the remark, "We may more easily imagine the fluid stone injected (as occurs in every mountain chain) amongst damp strata." He also questioned whether water could percolate through strata already under great pressure. In short, it would seem that Darwin realized he was describing his own idea rather than Lyell's in the course of writing this entry. i°* Lyell, Principles of Geology, vol. 1, p. 191: "Darby mentions beds of marine shells on the banks of Red River, which seem to indicate that Lower Louisiana is of 98 SANDRA HERBERT recent formation : its elevation, perhaps, above the sea, may have been due to the same series of earthquakes which continues to agitate equatorial America." The work referred to is William Darby, A Geographical Description of the State of Louisiana (Philadelphia, 1816). 105 William J. Burchell, Travels in the Interior of Southern Africa (London, 1824), vol. 2, pp. 71-79 describes the killing of two rhinoceroses south of the Hyena Mountains (30° 10' S., 24° 0' E.). In his own copy of the work Darwin scored the passage on p. 78 where Burchell described his sensation of the heat on a day of the hunt: "Although so chilling at sunrise, the weather had, by noon, changed to the opposite extreme. Exposed in the middle of a dry plain, where not a tree to afford shade was to be seen, I scarcely could endure the rays of the sun, which poured down, as it were, a shower of fire upon us." See also JR, pp. 101-102. ^°^ Lyell, Principles of Geology, vol. 3, p. 355: "The main body of the granite here [in Cornwall] is of a porphyritic appearance with large crystals of felspar; but in the veins it is fine-grained and without these large crystals. . . . The vein-granite of Cornwall very generally assumes a finer grain, and frequently undergoes a change in mineral composition, as is very commonly observed in other countries. Thus, according to Professor Sedgwick, the main body of the Cornish granite is an aggregate of mica, quartz, and felspar; but the veins are sometimes without mica, being a granular aggregate of quartz and felspar." ^"■^ Daubeny, Volcanos, pp. 94—95: "Trachytic porphyry also appears to pass by imperceptible gradations into the next species, pearlstone, which is characterized by the vitreous aspect generally belonging to its component parts. ... In its simplest form, this rock presents an assemblage of globules, varying from the size of a nut to that of a grain of sand, which have usually a pearly lustre, and scaly aspect. ... In some varieties the globules are destitute of lustre, and exhibit at the same time sundry alterations in their size, structure, and mode of aggregation, till at length they entirely disappear, and the whole mass puts on a stony appearance, which retains none of the characters of pearlstone. . . . Various alternations occur between the glassy and stony varieties of the pearlstone, sometimes so frequent as to give a veined or ribboned appearance to the rock, at others curiously contorted as though they had been disturbed in the act of cooling." 108 William Phillips, An Elementary Introduction to the Knowledge of Mineralogy (3rded.; London, 1823) contains no reference to pearlstone in Peru, but on p. 112 there is the statement that "At Tokay in Hungary, [pearlstone] is found enclosing round masses of black vitreous obsidian, and is intermixed with the debris of granite, gneiss, and porphyry, and alternating in beds with the latter." '°^ Daubeny, Volcanos, p. 180: "[The island of Ischia] is composed for the most part of a rock which seems to consist of very finely comminuted pumice, reagglutinated NOTES 99 SO as to form a tuff. . . .Although the pumiceous conglomerate, as I shall venture to call this rock, is seen in every part of the island, yet at Monte Vico. . .we observe intermixed with it huge blocks of trachyte.. . ." In a footnote on this page, which Darwin heavily scored in his own copy of the work, Daubeny stated that other geologists had identified the predominate rock at Ischia as an "earthv varietv of trachyte". ^^° Sir George Steuart Mackenzie, F.R.S. (1780-1848), mineralogist, as quoted in Daubeny, Volcanos, p. 221 : "In many places [in Iceland], [Sir G. Mackenzie] says, an extensive stratum of volcanic matter has been heaved up into large bubbles or blisters, varying from a few feet to forty or fifty in diameter." The original reference is to George Steuart Mackenzie, Travels in the Island of Iceland. . .1810 (Edinburgh 1811), pp. 389-390. "^^^ As quoted in Daubeny, Volcanos, p. 313; "In Sumatra, Marsden has described four [volcanos] as existing, but the following are all the particulars known concerning them: Lava has been seen to flow from a considerable volcano near Priamang, but the only volcano this observer had an opportunity of visiting, opened on the side of a mountain about 20 miles inland of Bencoolen, one fourth way from the top, so far as he could judge. . . . He never observed any connexion between the state of the mountain and the earthquake, but it was stated to him, that a few years before his arrival it was remarked to send forth flame during an earthquake, which it does not usually do. The inhabitants are however alarmed, when these vents all remain tranquil for a considerable time together, as they find by experience, that they then become more liable to earthquakes." The original reference is to William Marsden, The History of Sumatra (3rd ed.; London, 1811), pp. 29-30. ^^^ Alexandre Moreau de Jonnes (1778-1870), French economist and natural historian as cited in Daubeny, Volcanos, p. 334: "The process, by which these islands, according to Moreau de Jonnes, are in many instances formed, is sufficiently curious; first a submarine eruption raises from the bottom of the sea masses of volcanic products, which, as they do not rise above the surface of the water, but form a shoal a short way below its surface, serve as a foundation on which the Madreporites and other marine animals can commence their superstructure. Hence those beds of recent coralline limestone, seen covering the volcanic matter in many of the islands." The original reference in this case is to Alexander von Humboldt who had communicated directly with Moreau de Jonnes on the subject. See Humboldt, Personal Narrative, vol. 4, pp. 42-43; also M. Cortes and Alexandre Moreau de Jonnes, 'Memoire sur la geologic des Antilles ', Journal de physique, de chimie, d'histoire naturelle et des arts, vol. 70(1810), pp. 130-131. ^^^ Roussin, Le Pilote du Bresil, p. 47 states that on approaching the banks of Cape S. Roque: ". . .nous croyons avoir observe que le sable est d'autant plus rare et les graviers d'autant plus communs, que les sondes sont plus petites et plus voisines des bancs." 100 SANDRA HERBERT '^^ Humphry Davy, 'On the corrosion of copper sheeting by sea water, and on methods of preventing this effect; and on their appHcation to ships of war and other ships'. Philosophical Transactions of the Royal Society of London, vol. 114 (1824), pp. 151-158. After describing his experiments Davy concluded on p. 158: that "small quantities of zinc, or which is much cheaper, of malleable, or cast iron, placed in contact with the copper sheeting of ships, which is all in electrical connection, will entirely prevent its corrosion. And as negative electricity cannot be supposed favour- able to animal or vegetable life; and as it occasions the deposition of magnesia, a substance exceedingly noxious to land vegetables, upon the copper surface ; and as it must assist in preserving its polish, there is considerable ground for hoping that the same application will keep the bottoms of ships clean, a circumstance of great import- ance both in trade and naval war." "5 See note 59. '^^ The entries pertaining to Fig. 5 are written in brown ink. '^"^ A bar and a dot over a number indicates that no bottom was found at that depth. All entries on this page are in brown ink, except for the page number. '^^ Thomas Sorrell (c. 1797-?), boatswain of the H.M.S. Beagle; personal communication. See Fitzroy, ed.. Narrative of the Surveying Voyages of His Majesty's Ships Adventure and Beagle, vol. 2, p. 21. .\lso see JR, p. 282. '^' This entry is written in light brown ink. ^^° Humboldt, Personal Narrative, vol. 4, p. 384: "We discover between Calabozo, Uritucu, and the Mesa de Pavones, wherever men have made excavations of some feet deep, the geological constitution of the Llanos. A formation of red sandstone [Rothes todtes liegende] (or ancient conglomerate) covers an extent of several thousand square leagues. We shall find it again hereafter in the vast plains of the Amazon, on the eastern boundary of the province of Jaen de Bracamoros. This prodigious extension of red sandstone, in the low grounds that stretch along the East of the Andes, is one of the most striking phenomena, with which the study of rocks in the equinoctial regions furnished me." "iMiers, Travels in Chile and La Plata, vol. 1, pp. 394-395: "All around Quintero [near Quillota] . . .the fishermen had employed themselves digging shells for lime-making from a stratum four or five feet thick, in the recesses of the rocks, at the height of fifteen feet above the usual level of the sea, it being evident that at no very distant period this spot must have been buried in the sea, and uplifted probably by convulsions similar to the one now described." .\lso p. 458: "The recent shelly deposites mi.xed with loam [at Quintero] I have traced to places three leagues from the coast, at a height of 500 feet above the level of the sea. ..." See GSA, p. 35. NOTES 101 '^^ Lyell, Principles of Geology, vol. 3, p. 371: "[According to M. Eiie de Beaumont] ... near Champoleon [in France], a granite composed of quartz, black mica, and rose-coloured felspar, is observed partly to overlie the secondary rocks, producing an alteration which extends for about thirty feet downwards, diminishing in the inferior beds which lie farthest from the granite. ... In the altered mass the argillaceous beds are hardened, the limestone is saccharoid, the grits quartzose, and in the midst of them is a thin layer of an imperfect granite. It is also an important circum- stance, that near the point of contact both the granite and the secondary rocks become metalliferous, and contain nests and small veins of blende, galena, iron, and copper pyrites." 123 pitton, ' Geology ' as quoted in note 47. ^^^ Lesson and Garnot, Voyage aittour dii monde . . .Zoologie, vol. 1, part 1, p. 5: "Toutes las cotes de la Nouvelle-Galles du Sud [New South Wales] sont, en effet, entierement composees d'un gres houiller a molecules peu adherentes; et ce que nous appelons le premier plan des montagnes Bleues est egalement compose de ce gres, qui cesse entierement au mont York. La, une vallee profonde isole ce premier plan du second, qui est compose en entier de granite." ^^^ Lesson and Garnot, Vovage autoiir du monde . . . Zoologie, vol. 1, part 1 [1826] and part 2 [1828]. The following citations pertain to the entire paragraph on p. 102 of the notebook: On the formations of Payta see part 1, pp. 260-261: " Le lambeau desol tertiaire se compose de couches ou bancs alternatifs, dont voici I'enumeration, en commen^ant par la formation de phyllade qui le supporte. 1° Roches talqueiises phylladiformes, terrain primordial. 2° Argiles plastiques. — Sable argileux, schisteux, traverse par des veines entrecroisees de gypse fibreux...3'' Calcaire grassier .. ." Rock cleavage is described as running from east to west on p. 260. On p. 262 Lesson uses the figure 200 feet in describing the change in sea level which would have caused such configura- tions of strata as seen at Payta. With respect to volcanic formations on the north part of New Zealand, there is Lesson's remark in part 2, p. 410 that "De nombreux volcans, dont les traces des eruptions sont recentes, existent sur plusieurs points de ces lies [off the north shore of the North Island]. . .Aussi trouve-t-on communement des pierres ponces.. . ." With respect to richness of plant genera in New Zealand see the quotation from Lesson in note 80. On St Catherine's see part 1, p. 189: "Le granite forme entierement la croiite minerale de I'ile de Sainte-Catherine et du continent voisin.. . ." On the Falkland Islands see part 1, p. 198-199: "Les couches se composent de feuillets fendilles dans tous les sens, dont la direction, au lieu d'etre horizontale, est presque verticale, et forme particulierement sur le pourtour de la baie un angle de 45 degres: ceux de la grande terre se dirigent a I'Est, et ceux des ilots aux pingoins a 102 SANDRA HERBERT rOuest. . . . Cette phyllade supporte un gres schisteux. ..." Also on p. 200 reference is made to the discussion by "Pernetty" of a "montagne des Ruines" which looked man-made, and on p. 201, to what Darwin later quoting directly from Pernety called a "stream of stones" and what Lesson referred to as "blocs enormes du meme gres, entasses pele-mele. . ." SeeJR, p. 255 and Antoine Joseph Fernety, Journal historique d'un voyage. . .aux lies Malouines (Berlin, 1769), vol. 2, p. 526. On the region around Concepcion see part 1, p. 231 :" La couche la plus inferieure est formee par une sorte de phyllade noire, compacte et terne; celle qui est moyenne se compose d'un mica-schiste a feuillets tres-brillants, dont la direction est de I'Ouest a I'Est." The presence of talcose slates at Concepcion is mentioned on p. 232. 126 Juan and Ulloa, A Voyage to South America, vol. 2, p. 97. ^^' Juan and Ulloa, A Voyage to South America, vol. 2, p. 147: "These are the principal mines of Potosi, but there are several smaller crossing the mountain on all sides. The situation of the former of these mines is on the north side of the mountain, their direction being to the south, a little inclining to the west; and it is the opinion of the most intelligent miners in this country, that those which run in these directions are the richest." '^^ Juan and Ulloa, A Voyage to South America, vol. 2, p. 252: "The country round the bay, particularly that between Talcaguana and Conception. . .is noted for ... a stratum of shells of different kinds, two or three toises in thickness, and in some places even more, without any intermixture of earth, one large shell being joined together by smaller, and which also fill the cavities of the larger. . . . Quarries of the same kind of shells, are found on the tops of mountains in this country, fifty toises above the level of the sea." Also, p. 254: "All these species of shellfish are found at the bottom of the sea in four, six, ten and twelve fathom water. They are caught by drags; and ... no shells, either the same, or that have any resemblance to them, are seen either on the shores continually washed by the sea, or on those tracks which have been overflowed by an extraordinary tide." ^^^ John Playfair, Illustrations of the Huttonian Theory of the Earth (Edinburgh, 1802), pp. 51-52: "Indeed, the interposition of a breccia between the primary and secondary strata, in which the fragments, whether round or angular, are always of the primary rock, is a fact so general, and the quantity of this breccia is often so great, that it leads to a conclusion more paradoxical than any of the preceding, but from which, nevertheless, it seems very difficult to with-hold assent. Round gravel, when in great abundance, agreeably to a remark already made, must necessarily be considered as a production peculiar to the beds of rivers, or the shores of continents, and as hardly ever formed at great depths under the surface of the sea. It should seem, then, that under the primary schistus, after attaining its erect position, had been raised up NOTES 103 to the surface, where this gravel was formed; and from thence had been let down again to the depths of the ocean, where the secondary strata were deposited on it. Such alternate elevations and depressions of the bottom of the sea, however extra- ordinary they may seem, will appear to make a part of the system of the mineral kingdom, from other phenomena hereafter to be described." ■'^° The principle expressed in this passage, that the destruction of the earth's surface is required for its renovation, is consistent with the general content of the work of the great British geologist and member of the Royal Society of Edinburgh, James Hutton (1726-1797). However, as Darwin's cancellation would seem to indicate, the application of the principle failed in this instance, for Hutton, speaking providentially, had chosen rather to characterize volcanos as instruments designed "to prevent the unnecessary elevation of land, and the fatal effects of earthquakes", and his interpreter John Playfair, F.R.S. (1748-1819), while not quoting Hutton's words, did not challenge his conclusion. See James Hutton, Theory of the Earth (Edinburgh, 1795), vol. 1, p. 146, and Playfair, Illustrations of the Huttoman Theory, pp. 116-119. Later Charles Lyell (note 3) was more sanguine on the subject of the fatal effects of earthquakes. See his Principles of Geology, vol. 1, p. 479. ^^' Sir Richard Owen, F.R.S. (1804—1892), comparative anatomist and palaeonto- logist. In 1837 Owen was Assistant Conservator in the Hunterian Museum of the Royal College of Surgeons, and first Hunterian Professor of Comparative Anatomy and Physiology at the Royal College of Surgeons. In 1856 Owen left the Royal College of Surgeons for the British Museum, where he served as Superintendent of the Natural History Departments of the Museum and then later, as Superintendent of the new Natural History Museum in South Kensington. Owen's palaeontological work began in 1837 with his studies of Darwin's collection of South American fossil mammals. For Darwin's account of the opening of negotiations with Owen with respect to collections from the Beagle voyage see the letter from Darwin to J. S. Henslow, dated 3 October 1836 in Nora Barlow, ed., Darwin and Henslow. The Growth of an Idea (Berkeley and Los Angeles, 1967), pp. 118-119. Owen's completed work on Darwin's specimens is contained in Richard Owen, The Zoology of the Voyage of H. M.S. Beagle . . .1832-1836. . .Edited and Superintended by Charles Darwin. Part I. Fossil Mammalia. 4 numbers. (London, 1838-1840). ^^^ [Capt.] John Ross, A Voyage of Discovery. . .for the Purpose of Exploring Baffin's Bay (London, 1819), p. 178: "Soundings were obtained correctly in one thousand fathoms [at Possession Bay], consisting of soft mud, in which there were worms.. . .The temperature of the water on the surface was 34 1/2" [F.], and at eighty fathoms 32°;. . .at two hundred and fifty fathoms [measurement taken aboard another ship],. . .29 1/2° [F.]." In Appendix No. HI, p. Ixxxv this information is summarized and the coordinates of Possession Bay given as 73° 39' N., 77° 08' W. 104 SANDRA HERBERT '^^ These observations by John Herschel (note 40) on the subject of the crystal- lization of barium sulphate were probably communicated to Darwin by Charles Lyell (note 3). Herschel's letter of 20 February 1836 to Lyell, quoted in note 40, contains the following passage (Cannon, 'The Impact of Uniformitarianism', p. 310): "Cleavages of Rocks. — If Rocks have been heated to a point admitting a commence- ment of crystallization, ie to the point where particles can begin to move inter se — or at least on their own axes — some general cause must determine the position these particles will rest in on cooling — probably position will have some relation to the direction in which the heat escapes. — Now when all — or a majority of particles of the same nature have a general tendency to one position that must of course determine a cleavage plane. — Did you never notice how the infinitesimal crystals of fresh precipi- tated sulphate of Baryta [barium sulphate] & some other such bodies — arrange themselves alike in the fluid in which they float so as, when stirred all to glance with one light & give the appearance of silky filaments. Ask Faraday to shew you this phenomenon if you have not seen it — it is very pretty. What occurs in our expt, on a minute scale may occur in nature on a great one, as in granites, gneisses, mica slates &c — some sorts of soap in which insoluble margarates exist shew it beautifully [added: when mixed with water]." Lyell incorporated Herschel's observation into his next edition of the Principles. See Principles of Geology (5th ed. ; London, 1837), vol. 4, pp. 358. Presumably Lyell showed Darwin Herschel's letter, or discussed its contents with him, sometime in late 1836 or early 1837. The 'Faraday' referred to in Herschel's letter is Michael Faraday, F.R.S. (1791-1867), the eminent natural philosopher and experimentalist. '^* Erasmus Alvey Darwin (1804—1881). Charles' older brother who pursued the study of chemistry in his youth and early manhood. ^^^ Jose de Acosta, Histoire naturelle et moralle des Indes (Paris, 1600), p. 125 refers to "des tremblemens de terre qui ont couru depuis Chille, jusques a Quitto, qui sont plus de cinq cens lieues. . ." Acosta continued, "En la coste de Chille (il ne me souvient quelle annee) fut un tremblement de terre si terrible.. . .A peu de temps dela, qui fut I'an, de quatre vingts deux, vint le tremblement d'Arequipa, qui abbatit & ruina presque toute cette ville la. Du depuis en I'an quatre vingts six. . .aduint un autre tremblement en la cite des Roys [Lima].. . ." And on p. 125 verso: "En apres I'an enfuyuant, il y eut encor un autre tremblement de terre au Royaume & cite de Quitto, & semble que tous ces notables tremblemens de terre en ceste coste, ayent succede les uns aux autres par ordre. ..." '^® Joseph-Charles Bailly (1777-1844), mineralogist to the expedition, as quoted in Francois Peron, Voyage de decouvertes aux terres australes. . .1800-1804 (Paris, 1807), vol. 1, pp. 54—55. Following the passage quoted which Darwin copied correctly except for one misspelling ("d'lile" for "de I'ile") and the loss of a few accent marks, the text continues (p. 55): " De ces observations, il resulte bien incontcstablement que NOTES 105 toutes ont la meme origine, qu'elles datent toutes de la meme epoque; que reunies jadis, elles n'ont pu etre separees depuis, que par quelque revolution violente et subite. Quelle peut avoir ete cette derniere revolution?. . .Tous les fait se reunissent pour prouver que i'lle toute entiere ne formoit jadis qu'une enorme montagne brulante ; qu'epuisee, pour ainsi-dire, par ses eruptions, elle s'afFaissa sur elle-meme, engloutit dans ses abimes la plus grande partie de sa propre masse, et que de cette voiite immense, il ne resta debout que les fondemens, dont les debris entr'ouverts sur differens points, forment les montagnes actuelles de I'ile. Quelques pitons de forme conique, qui s'elevant vers le centre du pays, notamment le Piton du centre, portent les caracteres d'une origine posterieure a I'eboulement du cratere. ..." Also see VI, pp. 29-31. ^^' Bailly (note 136) as quoted in Peron, Voyage de decouvertes aux terres australes, vol. 1, p. 295: "De hautes montagnes granitiques. . .dont les sommites etoient presque entierement nues, forment toute la cote orientale de cette partie de la terre de Diemen. ..." Also see p. 304 for a description of more of the east coast of Van Diemen's Land [Tasmania]. ^^^ Henry Bolingbroke, A Voyage to the Demerary (London, 1807), p. 200 contains the passage Darwin quotes and pp. 200-201 the additional comment: "This constant shooting upwards of the land, which is so sensible in the West Indies, has been little heeded by European mineralogists." 139 Webster, Narrative of a Voyage to the Southern Atlantic Ocean, vol. 1, p. 371 : "Instances of earthquakes occuring in the island [St Helena] are on record. One took place in 1756, and in June 1780. On the 21st September 1817, one occurred, which it is said was particularly noticed by Napoleon, who thought that the Conqueror, 74, in which he had been, was blown up." The reference to antarctic vegetation pertains to Webster's discussion of the natural history of Cape Horn, Staten Island, and Deception Island in vol. 2, pp. 290-306. ^*° Darwin apparently searched Juan and LHloa's A Voyage to South America for evidence connecting Indian habitation and climatic change, and could not find it. He was more successful in his reading of Antonio de Ulloa's Noticias americanas (2nd ed. ; Madrid, 1792). He later quoted from that work (p. 302) in translation, presumably his own, to the effect that Indians of one arid region in the Andes had lost the art of making durable bricks from mud. This suggested to Darwin that the local climate had once been wetter, which fitted his notion that the South American continent had undergone elevation in geologically recent times. See jfR, pp. 409-411. ^^^ Edmond Temple, Travels in Various Parts of Peru, Including a Year's Residence in Potosi (London, 1830), vol. 2, p. 10: " In the course of this day's journey were to be seen, in well-chosen spots, many Indian villages and detached dwellings, for the most part in ruins. Up even to the very tops of the mountains, that line the 106 SANDRA HERBERT valleys through which I have passed, I observed many ancient ruins, attesting a former population where now all is desolate." For passages on a similar theme see pp. 4 and 5. Also consult JR, p. 412, where the quotation from Temple appears in shghtly different form. From his comment it would appear that Charles' sister Caroline Darwin Wedgwood (1800-1888) gave him the reference to Temple. '^2 John W. Webster, A Description of the Island of St. Michael (Boston, 1821), p. 124: "There is scarcely a man on the island, who has not a dog, and many have half a dozen. It is a remarkable fact that, although these animals are so numerous, no instance of hydrophobia was ever known among them." See JR, p. 436. ^^^ Sir Woodbine Parish, F.R.S. (1796-1882), personal communication. See JR, p. 156: " Sir Woodbine Parish informed me of another and very curious source of dispute [in the province of Buenos Ayres] ; the ground being so long dry, such quantities of dust were blown about, that in this open country the landmarks become obliterated, and people could not tell the limits of their estates." Parish served as commissioner and consul general and then charge d'affaires to Buenos Ayres from 1823-1832. Upon returning to London he became active in scientific societies. He was a long-time vice-president of the Royal Geographical Society and served on the Council of the Geological Society of London from 1834-1841, being sometime vice- president and during 1835-1836 one of the secretaries. ^^^ Felix d'Azara, Voyages dans VAmerique Meridionale. . .1781-1801 (Paris, 1809), vol. 1, p. 374: "On voit un exemple aussi etonnant de cette fougue dans les annees seches, oii I'eau est extremement rare au sud de Buenos-Ayres. En effet, ils partent comme fous, tous tant qu'ils sont, pour aller chercher quelque mare ou quelque lac : ils s'enfoncent dans la vase, et les premiers arrives sont foules et ecrases par ceux qui les suivent. 11 m'est arrive plus d'une fois de trouver plus de mille cadavres de chevaux sauvages morts de cette fagon." See JfR, p. 156. ^^^ John Hunter, An Historical Journal of the Transactions at Port Jackson and Norfolk Island. . .since the publication of Phillip's Voyage (London, 1793), pp. 507, 508, 525, and 535 refer to the drought around Sydney in the first half of the year 1791. 'Phillip's Voyage' refers to the account of his travels written by Arthur Phillip (1738-1814), vice-admiral and first governor of New South Wales, published as The Voyage of Governor Phillip to Botany Bay (London, 1789). "^Charles Sturt, Two Expeditions into the Interior of Southern Australia... 1828-1831 (London, 1833), vol. 1, p. 1: "The year 1826 was remarkable for the commencement of one of those fearful droughts to which we have reason to believe the climate at New South Wales is periodically subject. It continued during the two following years with unabated severity." And p. 2: "But, however severe for the colony the seasons had proved ... it was borne in mind at this critical moment, that the wet and swampy state of the interior had alone prevented Mr. Oxiey from NOTES 107 penetrating further into it, in 1818.. . .As I had early taken a great interest in the geography of New South Wales, the Governor was pleased to appoint me to the command of this expedition." See also JR, p. 157. ^" From this entry it would appear likely that it was Richard Owen (note 131) who referred Darwin to the article by Thomas Rackett, 'Observations on Cancer salinus\ which is quoted enthusiastically m JR, p. 77: "In the Linnean [Society of London] Transactions, [1815], vol. xi, p. 205, a minute crustaceous animal is described, under the name of Cancer salinus. It is said to occur in countless numbers in the brine pans at Lymington; but only in those in which the fluid has attained, from evapo- ration, considerable strength; namely about a quarter of a pound of salt to a pint of water. This cancer is said, also, to inhabit the salt lakes of Siberia. Well may we affirm, that every part of the world is habitable!" 148 j^gy John Stevens Henslow (1796-1861), Professor of Botany at Cambridge University and Darwin's 'Master in Natural History'. (Letter from Darwin to Henslow, January 1836, in Nora Barlow, ed., Darwin and Hetislow, p. 114.) Henslow himself did not publish on the subject of springs, but he may have been the source for two references which Darwin quoted on the subject in the JR, p. 78. Both works cited discuss plant life at the location of the springs, a subject which would have interested Henslow. The references were to James Edward Alexander, 'Notice regarding the Salt Lake Inder, in Asiatic Russia', Edinburgh New Philosophical Journal, vol. 8 (1830), pp. 18-20; and Peter Simon Pallas, Travels through the Southern Provinces of the Russian Empire. . .1793-1794 (London, 1802), vol. 1, pp. 129-134. The entry 'Springs. (Henslow)' is written in brown ink, the preceding entry on 'M'' Owen' in pencil. 149 'pi^g {^Q ostriches are the greater or common rhea, Rhea americana, found from north-eastern Brazil to the Rio Negro in central Argentina, and the lesser rhea or Darwin's rhea, Pterocnemia pennata, found in the Patagonian lowlands, where Darwin collected portions of a specimen, and in the high Andes of Peru, Bolivia, northern Chile, and northwestern Argentina. The lesser rhea became known as Darwin's rhea following its identification by the ornithologist John Gould, F.R.S. (1804-1881) at a meeting of the Zoological Society of London on 14 March 1837. Gould was then unaware that the species had already been described in 1834 by the French naturalist Alcide Dessalines d'Orbigny (1802-1857). For Gould's report on Rhea darwinii and comments by Darwin on the habits of the two species (but primarily the common rhea) and on their geographical distribution see the Proceedings of the Zoological Society of London, vol. 5 (1837), pp. 35-36. For further treatment see John Gould, The Zoology of the Voyage of H.M.S. Beagle. . .1832-1836. . .Edited and Superintended by Charles Darwin. Part III: Birds. 5 numbers. (London, 1838-1841), pp. 120-125 including plate. Also see J7?, pp. 108-110. 108 SANDRA HERBERT Rhea americana, the bigger or common 'ostrich' referred to on pages 127 and 130. Darwin's rhea, Pterocnemia pennata, the smaller 'ostrich' or 'Petisse' referred to on pages 127 and 130. Of this rhea Darwin wrote: 'This species. . .differs in many respects from the Rhea Americana. It is smaller, and the general tinge of the plumage is a light brown in place of grey ; each feather being conspicuously tipped with white. The bill is considerablv smaller, and especially less broad at its base; the culmen is less than half as wide, and becomes slightly broader towards the apex, whereas in the R. Americana it becomes slightly narrower; the extremity, however, of both the upper and lower mandible, is more tumid in the latter, than in the R. Darwinii. . . . The skin round and in front of the eyes is less bare in R. Darwinii; and small bristly feathers, directed forwards, reach over the nostrils. The feet and tarsi are nearly of the same size in the two species. In the R. Darzvinii, short plumose feathers extend downwards in a point on the sides of the tarsus, for about half its length. The upper two- thirds of the tarsus, in front, is covered with reticulated scales in place of the broad transverse band-like scales of the R. Americana; and the scales of the lower third are not so large as in the latter. In the R. Darwinii the entire length of the back of the tarsus is covered with reticulated scales, which increase in size from the heel upwards: in the common Rhea, the scales on the hinder side of the tarsus are reticulated only on the heel, and about an inch above it; all the upper part consisting of transverse bands, similar to those in front.' Quoted from John Gould, The Zoology of the Voyage of H. M.S. Beagle. Part III: Birds. 5 numbers. (London, 1838-1841), pp. Xl^i-U^. ^m.tt4H:'i\ ;^^x>j )^kiih0^^ Rhea Darwinii [Pterocnemia pennata], Plate 47 from John Gould, The Zoology of the Voyage ofH.M.S. Beagle. Part III: Birds. 5 numbers. (London, 1838-1841). Drawing by John Gould, lithograph by Elizabeth Coxen Gould. NOTES 111 ^^^ One of the sources which Darwin likely drew on for this passage was Webster, Voyage to the Southern Atlantic, vol. 2, pp. 281-302. ^^^ Zorrilla is the Spanish word for skunk. The notes on species ranges of South American forms which Darwin suggested making in this entry are presumably those found in the Darwin MSS, Cambridge University Library, vol. 29 (i). The 'Birds' list is numbered fol. 41 ; the 'Animals' list appears between fols. 46^7. The zorrilla appears on the list for animals. 152 Yj^g extinct llama is the Macrauchenia patachonica as described by Richard Owen (note 131). See Owen, The Zoology of the Voyage of H. M.S. Beagle. Part I: Fossil Mammalia, pp. 10-11, 35-56 and plates VI-XV. Darwin collected the fossil specimens in January 1834 at the port of San Julian, having "no idea at the time, to what kind of animal these remains belonged." {JR, p. 208.) Owen's earhest known comment on the specimens occurs in a letter to Charles Lyell dated 23 January 1837 where he described them as follows: RUMINANTIA Fam: Camelidae 2 cervical vertebrae, portions of femur, & fragments of a Gigantic Llama! as large as a Camel, but an Auchenia (from the plains of Patagonia) For the citation from Owen see Leonard G. Wilson, Charles Lyell: The Years to 1841 (New Haven and London, 1972), p. 437. Also see JR, pp. 208-209. Several of the fossilized bones which Darwin collected of Macrauchenia patachonica are presently on display in the Fossil Mammal Gallery of the British Museum (Natural History). A number of Darwin's fossil mammalia came to the British Museum (Natural History) during World War II after the specimens had suffered damage from bombs which fell on the museum of the Royal College of Surgeons, where the specimens had been stored since the time Owen first worked on them. Illustrations on pages 112-114. 153 'p'jjg 'Petisse' is the lesser rhea, or Darwin's rhea. (See note 149.) Darwin customarily referred to the two rheas in his field notes as 'Avestruz' and 'Avestruz Petise' from the Spanish avestruz (ostrich) and avestruz petiso (small ostrich). Here and for the following notes (154, 156-159) 1 am indebted to Dr David Snow of the British Museum (Natural History) at Tring for supplying the present-day identifications of Darwin's specimens. Names follow or are consistent with the usage in Rodolphe Mayer De Schauensee, The Species of Birds of South America and Their Distribution (Narberth, Pennsylvania, 1966). '^* Fourmilier, (' antbird') so named by the French naturalist George-Louis Leclerc, Comte de Buffon (1707-1788), for its falsely reported habit of living chiefly on ants (fourmis), is a general term for a member of the essentially tropical American family Formicariidae. Since Darwin did not collect extensively in tropical areas and does not seem to have used the term Fourmilier elsewhere in his notes, it is doubtful Bones of the right forefoot and ankle-joint (astragalus) of Darwin's specimen of Macrauchenia patachonica from the palaeontological collections of the British IMuseum (Natural History). Alt Plate 11 from Richard Owen, The Zoology of the Voyage of H.M.S. Beagle. Part I: Fossil Mammalia. 4 numbers. (London, 1838-1840). The plate contains figures of the bones of the right forefoot of Darwin's specimen of Macraiichenia patachonica. Drawing and lithograph by George Scharf. 114 SANDRA HERBERT A reconstruction of a specimen of the Macrauchenia patachonica, tlic 'extinct Guanaco' referred to on pages 129 and 130. ' u.MiiiLi Llama' or that it was the antbird, or at least primarily the antbirds, which he had in mind when he made this entry. More likely he was thinking of those birds which he described in his Ornithological Notes as Myothera, a term which was given as the equivalent of NOTES lis Fourmilier in the 'Diet, dassique', the systemmatic work he had with him aboard ship. (See Jean Baptiste Bory de Saint-Vincent, ed., Dictionnaire dassique d'histoire naturelle [Paris, 1825], vol. 7, pp. 22-25.) Under Myothera Darwin described a number of birds now assigned to the South American family Rhinocryptidae, a small family that appears to be closest to the Formicariidae, though its affinities are not certain. Chile is the centre of the present-day distribution of this family, in the sense that more genera occur there than in other countries. In general Darwin's recognition of specific differences and geographical ranges for this group was accurate and com- plete for the areas he visited. On Darwin's return to England the birds he had collected from this group were classified by John Gould (note 149) of the Zoological Society of London chiefly according to the taxonomy provided for the group by the German naturalist Friedrich Heinrich von Kittlitz (1799-1874) in 1830. For Darwin's discussion of the group, including Gould's classifications, see JR, pp. 329-330 and 351-353. For Darwin's listing of these specimens by number, all under the rubric Myothera, see Nora Barlow, ed., 'Darwin's Ornithological Notes', Bulletin of the British Museum {Natural History) Historical Series, vol. 2 (1963), pp. 201-278. Selected specimens which Darwin collected in Chile from this family, identified by their modern names, are listed as follows. Entries denoted with an asterisk indicate specimens collected by Darwin in the collections of the British Museum (Natural History) at Tring. The numbers given are those Darwin assigned to his specimens. From the genus Pteroptochos Darwin collected two species, the more southern P. tarnii, the Black-throated Huet-huet (specimen 2531*), and the more northern P. megapodius, the Moustached Turca (specimen 2172). [The Museum owns a specimen collected by Darwin of P. megapodius which no longer bears its original specimen number.] From the genus Scelorchilus Darwin collected three species, the more southern S. rubecula, the Chucao Tapaculo (specimen 2556*); the more northern S. albicollis, the White- throated Tapaculo (specimens 2173, 2174), and what was probably the northern desert subspecies S.a. atacamae (specimen 2825). Darwin also collected specimens of SM^ra/Za paradoxa, the Ochre-flanked Tapaculo (specimen 2555*), whose range in Chile lies within that of 5. rubecula. Further, he correctly identified the affinity of the ' black wren' of Tierra del Fuego (Scytalopus fuscus of Gould) with these other birds. This bird is now described as 5. magellanicus, the Andean Tapaculo, and is assigned to the family Rhinocryptidae. In Chile it ranges from the Cape Horn Archipelago to Atacama. For general information on the family Rhinocryptidae, including drawings of various species and descriptions of their distinctive cries, see A. W. Johnson, The Birds of Chile and Adjacent Areas of Argentina, Bolivia and Peru (Buenos Aires, 1967), vol. 2, pp. 201-222. On these birds also see Gould, The Zoology of the Voyage of H.M.S. Beagle. Part III: Birds, pp. 70-74. ^^^ The 'extinct Guanaco' is identical to the 'extinct Llama'. See note 152. ^^^ The Chiloe creeper is Aphrastura spinicauda, the Thorn-tailed Rayadito (specimens 2129 and 2130). It is distributed from Coquimbo in Chile south to Tierra 116 SANDRA HERBERT del Fuego, and in Argentina from Neuquen and Rio Negro southwards. It also occurs on various off-lying islands including Chiloe. The Chiloe race is the distinctive sub- species A. spinicauda fulva, being buff-coloured instead of mainly white below. For further information on Darwin's specimens see 'Darwin's Ornithological Notes'; J/?, p. 301 ; and Gould, The Zoology of the Voyage ofH.M.S. Beagle. Part III: Birds, p. 81. 157 Piirnarius, the ovenbird, the genus which gives its name to the family Furna- riidae. Found from southern Mexico to Patagonia the family shows the greatest measure of diversity in the southern part of its range. Darwin collected a number of species belonging to the family, paying particular attention to Furnarius rufus, the Rufous Hornero (specimen 1200) and Geositta cunicularia, the Common Miner (specimen 1222*). The asterisked specimen is part of the collections of the British Museum (Natural History) at Tring. • The Museum also owns another Darwin specimen of the same species, unnumbered, and according to its label presented by Sir William Burnett (1779-1861, physician to William IV) and Robert Fitzroy (note 27). In the Journal of Researches Darwin referred to Furnarius rufus according to its common name as the 'Casara' or house-builder and to Geositta cunicularia as the 'Casarita' or little house-builder. As the similarity of the two local names suggests, the second bird is something like a smaller version of the first, though its plumage is more earth-brown and not so rufous. For further information on the birds see ' Darwin's Ornithological Notes'; J'i?, pp. 112-113, 353, and 477; and Gould, The Zoology of the Voyage ofH.M.S. Beagle. Part III: Birds, pp. 64-65. ^^^ Caracaras are large carrion-feeding birds belonging to the family Falconidae. They are very common in parts of South America, and Darwin collected a number of specimens. In his 'Ornithological Notes' Darwin mentions four species: Polyborus plancus, the Crested Caracara (p. 234), Milvago chimango, the Chimango Caracara (p. 234 top and p. 236; also see specimen 1204*), Phalcoboenus australis, the Striated Caracara (p. 236, specimen 1882), and Phalcoboenus albogularis, the White-throated Caracara (p. 238, specimen 2029). In his 'Ornithological Notes' Darwin also referred to the Galapagos hawk as a caracara (p. 238), though John Gould (note 149) later corrected him. The asterisked specimen of A/, chimango is part of the collections at the British Museum (Natural History) at Tring. The Museum also has an unnumbered Beagle specimen of M. chimango which lacks its original label, as well as a specimen of P. plancus presented by William Burnett (note 157) and Robert Fitzroy (note 27) without data. For more on these birds see 'Darwin's Ornithological Notes', pp. 233- 239; JR, pp. 63-69, 256, 461 ; John Gould, 'Observations on the Raptorial Birds in Mr. Darwin's Collection, with characters of the New Species', Proceedings of the Zoological Society of London, vol. 5 (1837), pp. 9-11; and Gould, The Zoology of the Voyage ofH.M.S. Beagle. Part III: Birds, pp. 9-31. '^^ Calandria, Mimus saturninus modulator, the Chalk-browed Mockingbird which Darwin collected at Maldonado (specimen 1213). In this entry Darwin probably also NOTES 117 had in mind other mockingbirds he collected in South America and the Galapagos Islands. Continental forms included Mimus patagoniciis, the Patagonian Mockingbird (specimens 1461 and 1620), and Mimus thenca, the Chilean Mockingbird (specimen 2169). The Galapagos forms included: Nesomimus trifasciatiis (Gould, 1837) which Darwin collected on Charles Island (specimen 3306), Nesomimus parvulus (Gould, 1837) which Darwin collected at Albemarle Island (specimen 3349), and Nesomimus melanotis (Gould 1837) which Darwin collected at Chatham Island (specimen 3307). The British Museum (Natural History) at Tring owns these specimens which, however, no longer bear Darwin's original labels. Classification of the Galapagos forms is from Michael Harris, A Field Guide to the Birds of Galapagos (London, 1974), the most recent treatment of these birds. The only point bearing on Darwin's speci- mens where Harris's grouping of the birds differs from that of Gould is with respect to the mockingbird of James Island. Harris places the mockingbirds on James Island with those of Albemarle Island; Gould placed them with the group on Chatham Island. For further discussion of all six mockingbirds described in this note, including plates on the three Galapagos species, see Gould, The Zoology of the Voyage of H. M.S. Beagle. Part III: Birds, pp. 60-64. Also see 'Darwin's Ornithological Notes'; jfR, pp. 62-63, 461 ; and Gould's report on the three Galapagos species in Proceedings of the Zoological Society of London, vol. 5 (1837), p. 27. 160 jjjg 'C of 'Crust' is written over an 'f. 161 William J. Burchell (1782-1863), English naturalist; personal communication. Burchell's Travels in the Interior of Southern Africa, vol. 2, p. 207 is quoted on the subject of the large size of South African animals compared to animals from other continents in J7?, p. 101. '^^ William J. Burchell (note 161), personal communication. See GSA, p. 3: "Mr. Burchell informs me, that he collected at Santos (lat. 24° S.) oyster-shells, apparently recent, some miles from the shore, and quite above the tidal action." During his South American travels of 1825-1829 Burchell made extensive zoological and botanical collections but never published significantly on them in later life. In this paragraph Burchell's name is written in light brown ink above the line, which would indicate a later dating than other entries on the page. ^^^ Capt. Robert Fitzroy (note 27), personal communication. See also 7^, pp. 266- 267: "I have heard Captain FitzRoy remark, that on entering any of these channels [at Tierra del Fuego] from the outer coast, it is always necessary to look out directly for anchorage; for further inland the depth soon becomes extremely great." ^^* Charles Lyell (note 3), personal communication. The reference is to Leopold von Buch, Description physique des iles Canaries (Paris, 1836), p. 428: "Ces emanations sulfureuses paraissent donner aux volcans de Java un caractere tout particulier qui n'appartient certainement pas avec le meme degre d'intensite et de frequence a la plupart des autres volcans de la surface du globe." See GSA, pp. 238-239. 118 SANDRA HERBERT ^^^ See Edward Kendal, 'Account of the Island of Deception, one of the New Shetland Isles. Extracted from the private Journal of Lieutenant Kendal, R.N., embarked on board his Majesty's sloop Chanticleer, Captain Forstcr, on a scientific voyage. . .\ Journal of the Royal Geographical Society, vol. 1 (1832), p. 64: "Possession Cape is situated in 63° 46' S., and 61° 45' W. We procured specimens of its rock. ..." Also p. 63 where the land is described as being composed "of a collection of needle- like pinnacles of sienite." Capt. Henry Foster, F.R.S. (1796-1831) commanded the Chanticleer from 1828-1831, Darwin's misspelling of his name deriving from an identical misspelling in the title of the article cited here. '^® Darwin's estimate of the dimensions of Deception Island is taken from the map facing p. 64 of Kendal, 'Account of the Island of Deception' (note 165). ^^'^ See Edward Kendal, 'Account of the Island of Deception' (note 165), p. 65: "There was nothing in the shape of vegetation except a small kind of lichen, whose efforts are almost ineffectual to maintain its existence amongst the scanty soil afforded by the penguins' dung." P. 66: "Having observed a mound on the hill immediately above this cove, and thinking that something of interest might be deposited there, I opened it; and found a rude coffin, the rotten state of which bespoke its having been long consigned to the earth, but the body had undergone scarcelv any decomposition. The legs were doubled up, and it was dressed in the jacket and cap of a sailor, but neither they nor the countenance were similar to those of an Englishman." Also p. 66: "We took the hint of the freezing over of the cove, and effected our retreat. . . . We quitted it on the 8th of March " See JR, p. 613. '^^ James Cook, A Voyage towards the South Pole, and round the World. . . 1772- 1775 (London, 1777), vol. 2. There is, facing p. 177, a full page map of Christmas Sound with numerous soundings included. On p. 200 Cook commented of the entire south-western coast of Tierra del Fuego: " For to judge of the whole by the parts we have sounded, it is more than probable that there are soundings all along the coast, and for several leagues out to sea. Upon the whole, this is, by no means, the dangerous coast it has been represented." ^^^ James Cook, A Voyage to the Pacific Ocean. Undertaken. . .for Making Discoveries in the Northern Hemisphere. . .1776-1780 (London, 1784), vol. 1, pp. 78- 79 records that at Kerguelen Land : " A prodigious quantitv of seaweed grows all over it, which seemed to be the same sort of weed that Mr. Banks distinguished by the name of fuais giganteus. Some of this weed is of a most enormous length, though the stem is not much thicker than a man's thumb. I have mentioned, that on some of the shoals upon which it grows, we did not strike ground with a line of twenty-four fathoms. The depth of water, therefore, must have been greater. And as this weed does not grow in a perpendicular direction, but makes a very acute angle with the bottom, and much of it afterwards spreads many fathoms on the surface of the sea, I am well warranted to say, that some of it grows to the length of sixty fathoms and NOTES 119 upward." See JR, pp. 303-304, where Darwin quoted from this passage but errone- ously credited it to the narrative of Cook's second rather than his third voyage. In Darwin's notebook entry the expression '24' would seem to be a variant of '24'. See note 25. ^™ Benjamin Bynoe (1804-1868), Assistant and later Acting Surgeon aboard H.M.S. Beagle; personal communication. From the use of the present tense in this entry it would seem that Darwin saw or corresponded with Bynoe after the voyage. If so, this would not be the first occasion on which Darwin discussed geological issues with Bynoe. See, for example, Darwin MSS, Cambridge University Library, vol. 34 (ii), fol. 182 for Darwin's notes on a conversation with Bynoe during the voyage on geological topics. ^''^ Woodbine Parish (note 143), personal communication. Later published in Parish, Buenos Ayres and the Provinces of the Rio de la Plata (London, 1839), p. 242: "It is related that for many years after its foundation, the inhabitants [of Cordoba] were subjected to much inconvenience from the occasional overflowings of a lake in the neighbouring hills, until an earthquake swallowed up its waters, and drained it apparently forever." "2 Sir Roderick Impey Murchison, F.R.S. (1792-1871), British geologist, fellow of the Geological Society of London, twice its president (1831-1833; 1841-1843) and in 1837 a vice-president; personal communication. In the 1830s Murchison was engaged in his great work on the stratigraphy of palaeozoic rocks, which culminated in his identification of the Silurian system, which he named and described. See Murchi- son, The Silurian System (London, 1839), chapter 18, pp. 216-222 on "Lower Silurian Rocks. — 3rd Formation of ' Caradoc Sandstone'. " Also p. 583, "There is ... a phenomenon of the highest importance, connected with the distribution of organic remains in the older strata, which has not been adverted to; namely, that the same forms of crustaceans, mollusks and corals, are said to be found in rocks of the same age, not only in England, Norway, Russia, and various parts of Europe, but also in Southern Africa, and even at the Falkland Islands, the very antipodes of Britain. This fact accords, indeed, with what has been ascertained concerning the wide range of animal remains in deposits equivalent to our oolite and lias; for in the Himalaya Mountains, at Fernando Po, in the region north of the Cape of Good Hope, and in the Run of Cutch and other parts of Hindostan, fossils have been discovered, which, as far as the English naturalists who have seen them can determine, are undistinguishable from certain oolite and lias fossils of Europe." To this remark Murchison added in a footnote: "The fossils from the Falkland Islands were discovered by Mr. C. Darwin, and they appear to me to belong to the Lower Silurian Rocks." Also setjfR, p. 253. ^''^ Rev. William Daniel Conybeare, F.R.S. (1787-1857), English geologist, early member (1811) of the Geological Society of London; later dean of Llandaff. In his 120 SANDRA HERBERT 'Report on the Progress, Actual State, and Ulterior Prospects of Geological Science' {Report of the First and Second Meetings of the British Association for the Advancement of Science [London, 1833], p. 396), Conybeare had expressed a high opinion of Silliman's Journal as a source for North American geology. This journal, formally entitled the American Journal of Science and the Arts, contained the following full- length articles on North American geology for the year 1835: (vol. 27) JuUus T. Ducatel and John H. Alexander, 'Report on a projected Geological and Topo- graphical Survey of the State of Maryland', pp. 1-38; A. B. Chapin, 'Junction of Trap and Sandstone, Wallingford, Conn.', pp. 104—112; Henry D. Rogers, 'On the Falls of Niagara and the reasonings of some authors respecting them', pp. 326-335; ' Notice of the Transactions of the Geological Society of Pennsylvania, Part I ', pp. 347-355; Charles U. Shepard, 'On the Strontianite of Schoharie, (N.Y.) with a Notice of the Limestone Cavern in the same place', pp. 363-370; (vol. 28) John Ball, 'Geology, and physical features of the country west of the Rocky Mountains, &c.', pp. 1-16; T. A. Conrad, 'Observations on the Tertiary Strata of the Atlantic Coast', pp. 104-1 1 1 , 280-282 ; John Gebhard, ' On the Geology and Mineralogy of Schoharie, N. Y.', pp. 172-177; Samuel George Morton, 'Notice of the fossil teeth of Fishes of the United States, the discovery of the Gait in Alabama, and a proposed division of the American Cretaceous Group', pp. 276-278; and Joseph G. Totten, 'Descriptions of some Shells, belonging to the Coast of New England', pp. 347-353. Briefer reports on aspects of North American geology appear under the heading of 'Miscellanies — Foreign and Domestic ' in both volumes. '"^ Review of 'A Collection of Memoirs and Documents Relative to the History, Ancient and Modern, of the Provinces of the Rio de la Plata. — [Coleccion de obras, &c.] by Pedro de Angelis', Athenaum, no. 496 (29 April 1837), p. 302: "La Cruz [Luis de la Cruz] volunteered to conduct the expedition [for the purpose of surveying a carriage road between Concepci6n and Buenos Aires] at his own expense, and being accom- panied by some Chilian traders, well acquainted with the Pampas, and also by some caciques of the Pehuenche Indians, he started from the fort of Ballenar, near the volcano of Antuco, in the Andes, in the beginning of April — the autumn of that climate. . .The length of the road which he surveyed, and actually measured with the chain, was 172 Spanish leagues and a few yards [894.4 km (555 miles)]. The expense of rendering it practicable for carts was estimated by him at 46,000 pesos, the greater part of which sum was required for the passage through the mountains. In many places the large stones which covered the ground were to be cleared away; but the chief obstacles were the cracked streams of lava to be crossed in the Andes, and the numerous banks of rough scoriae or ashes occurring in the plains as well as the mountains." Darwin misdated his reference to this review in the Athenaum by a year. ^''^ Pedro de .\ngelis, Coleccion de obras y documentos relativos a la historia antigua y moderna de las provincias del Rio de la Plata (Buenos Aires, 1836-1837), 6 NOTES 121 vols. Darwin's reference is to the first two volumes of this series which were pubhshed in 1836. ^'® Angelis, Coleccion de obras (note 175). Woodbine Parish (note 143) was certainly mentioned in this context because of his association with Buenos Ayres and the United Provinces of La Plata. Parish would have been a likely owner, and thus a possible lender, of Angelis's work. ^'''' [W. D. Cooley], Review of Coleccion de obras y documentos relatives a la historia antigua y tnoderna de las provincias del Rio de la Plata, ilustrados con notas y disertaciones by Pedro de Angelis, Edinburgh Review, vol. 65 (1837), pp. 87-109. The Wellesley Index to Victorian Periodicals, 1824-1900 is the source of the reviewer's name. The 'March 1835' notation in this entry is puzzling since the date is rather far removed from either the date of publication of Angelis's work or the date of the ' present Edinburgh '. ^''^ Woodbine Parish (note 143), personal communication. The distance between Quilmes and Punta Indio is approximately 70 miles (112.63 km). The two points are found along the coastline south of Buenos Aires. In his book Parish discussed a larger area covered by beds of sea shells beginning at Santa Fe two hundred and forty miles northwest of Buenos Aires {Buenos Ayres, p. 168): "Travelling south from Santa Fe, along the shores of the Plata, which bounds these pampas on the east, we find, at distances varying from one to six leagues inland from the river, and from fifty to one hundred and fifty miles from the sea, large beds of marine shells, which the people of those parts quarry for lime. From these deposits I have myself specimens of Voluta Colocynthis, Voluta Angulata, Buccinum Globulosum, Buccinum Nov. Spe., Oliva Patula; Cytheraa Flexuosa? Mactral Venus Flexuosa, Ostrea, &c." Also see Darwin, GSA, pp. 2-3 for lists of shells collected along the coastline near Buenos Aires by Parish and described by Alcide Dessalines d'Orbigny (note 149) and the conchologist and fellow of the Linnean Society of London, George Brettingham Sowerby (2nd) (1812-1884). ^''^ James de Carle Sowerby (1787-1871), accomplished fossil conchologist, a fellow of the Zoological Society of London and the Linnean Society of London; personal communication. See JR, p. 253: "Mr. Murchison, who has had the kindness to look at my specimens [of fossil shells from the Falkland Islands], says that they have a close general resemblance to those belonging to the lower division of his Silurian system; and Mr. James Sowerby is of [the] opinion that some of the species are identical." For a complete description of one group of the shells see John Morris and Daniel Sharpe, 'Description of Eight Species of Brachiopodous Shells from the Palaeozoic Rocks of the Falkland Islands, Quarterly Journal of the Geological Society of London, vol. 2 (1846), pp. 274—278: George Brettingham Sowerby (note 178) produced the two plates. The Journal of the Society for the Bibliography of Natural 122 SANDRA HERBERT History, vol. 6, pt. 6, 1974, is devoted to papers on the Sowerby family and includes: J. B. MacDonald, 'The Sowerby Collection at the British Museum (Natural History)' and R. J. Cleevely, 'A provisional bibliography of natural history works by the Sowerby family'. ^^° Charles Lyell (note 3), personal communication. ^*^ James Bird, 'Observations on the Manners of the Inhabitants who occupy the Southern Coast of Arabia and Shores of the Red Sea; with Remarks on the Ancient and Modern Geography of that quarter, and the Route, through the Desert, from Kosir to Keneh', Journal of the Royal Geographical Society of London, vol. 4 (1834), pp. 192-206. The passage from which Darwin made the inference that the land in question had been elevated is the following (p. 202): "I visited old Kosir, six miles N.W. of the modern town. The town of old Kosir is situated on the north side of an inlet of the sea, which formerly extended westward into the land about a mile, but is now crossed by a bar of sand, that prevents the ingress of the water into the former channel. The ruins of the houses are chiefly found on the north side of the channel, which is still swampy in some parts of the bottom, where, in former times, the sea formed a kind of backwater to the point of land on which the town stood.. . .The banks which bounded the former inlet, are formed of white calcareous tuffa and sand, as is also the whole of the shore of the Red Sea at this part. The sea appears to have gradually retired from the land, and left a considerable beach between its present limits and the base of the mountains westward." ^^'^ See Darwin, VI, pp. 120-121. Citing Leopold von Buch (note 56), among others, Darwin wrote: "Lavas are chiefly composed of three varieties of feldspar, varying in specific gravity from 2.4 to 2.74; of hornblende and augite, varying from 3.0 to 3.4; of olivine, varying from 3.3 to 3.4; and lastly, of oxides of iron, with specific gravities from 4.8 to 5.2. Hence crystals of feldspar, enveloped in a mass of liquefied, but not highly vesicular lava, would tend to rise to the upper parts; and crystals or granules of the other minerals, thus enveloped, would tend to sink... Trachyte, which consists chiefly of feldspar, with some hornblende and oxide of iron, has a specific gravity of about 2.45 ; whilst basalt composed chiefly of augite and feldspar, often with much iron and olivine, has a gravity of about 3.0. Accordingly we find, that where both trachytic and basaltic streams have proceeded from the same orifice, the trachytic streams have generally been first erupted, owing, as we must suppose, to the molten lava of this series having accumulated in the upper parts of the volcanic focus.. . .As the later eruptions, however, from most volcanic mountains, burst through their basal parts, owing to the increased height and weight of the internal column of molten rock, we see why, in most cases, only the lower flanks of the central, trachytic masses, arc enveloped by basaltic streams. The separation of the ingredients of a mass of lava would, perhaps, sometimes take place within the body of a volcanic mountain, if lofty and of great dimensions, instead of within the NOTES 123 underground focus; in which case, trachytic streams might be poured forth, almost contemporaneously, or at short recurrent intervals, from its summit, and basaltic streams from its base: this seems to have taken place at Teneriffe." To this last point Darwin added a footnote: "Consult von Buch's well-known and admirable Description Physique of this island [Teneriffe], which might serve as a model of descriptive geology." See von Buch, Description physique des ties Canaries, the entire section pp. 153-228. ^°'' The ' Avestruz' was the local name for the rhea. See notes 149 and 153. ^°* 'Mr Brown' was obviously a guest with Darwin at the house of Woodbine Parish (note 143), and someone with first-hand knowledge of South American geography. Lacking a first name for Brown, and a good cross-reference, one can only speculate on his identity. He may have been William Brown (1777-1857), an admiral in the navy of Buenos Aires, a native of Ireland, and the only Brown mentioned in Nina L. Kay Shuttleworth, A Life of Sir Woodbine Parish (London, 1910). See also Michael G. Mulhall, The English in South America (Buenos Aires and London, 1878), p. 166 for information which places Brown in Ireland in 1836 and therefore plausibly in London in 1837. 185 Woodbine Parish (note 143) referring to Anthony Zachariah Helms, Travels from Buenos Ayres, by Potosi, to Lima (2nd ed.; London, 1807); personal communi- cation. Helms associated the granitic boulders he found around Potosi, Bolivia, which is situated in the Cordillera proper, with granite found in Tucuman, a province in northwestern Argentina. Parish considered Tucuman to lie in the upper parts of the Sierra de Cordoba, a low range of pampean mountains. (Buenos Ayres, p. 254) On the subject of the travelled boulders, see Helms, p. 45 : " It in a particular manner excited my astonishment here, to find the highest snow-capt mountains within nine miles from Potosi, covered with a pretty thick stratum of granitic stones, rounded by the action of water. How could these masses of granite be deposited here, as there is a continual descent to Tucuman, where the granitic ridge ends, and from Tucuman to Potosi it consists of simple argillaceous shistus? Have they been rolled hither by a general deluge, or some later partial revolution of nature ? " Darwin quoted from this passage in the JR (p. 290), and added, " He [Helms] supposes they [the boulders] must have come from Tucuman, which is several hundred miles distant: yet at p. 55 he says, at localla (a few leagues only from Potosi), 'a mass of granite many miles in length, rises in huge weatherbeaten rocks:' the whole account is to me quite unintelligible." Unlike Darwin, Parish did not quarrel with Helms' account. See Buenos Ayres, p. 254. ^^^ 'Signor Rozales' would also seem to have been a guest with Darwin at the house of Sir Woodbine Parish (note 143). Again, lacking a first name or a good cross- reference, one can only speculate as to his identity. From his last name and the nature of his remarks, one may presume that he was South American, likely Chilean. If he were sufiiciently well known to be included in standard biographical dictionaries, he 124 SANDRA HERBERT was most likely related to Juan Enrique Rosales (d. 1825), a hero of Chile's struggle for independence. One member of that family who can definitely be placed in Europe in 1837 was Francisco Javier Rosales (d. 1875), Chilean charge d'affaires to Paris from 1836-1853. Another member of the family probably in Europe at the time was Vicente Perez Rosales (1807-1886), subsequently a well-known author and coloniza- tion agent for the Chilean government in Europe. i^'' Edward Turner, F.R.S. (1798-1837), the chemist, as quoted in Thomas Allan, 'On a Mass of Native Iron from the Desert of .\tamaca [sic] in Peru', Trans- actions of the Royal Society of Edinburgh, vol. 11 (1831), p. 226: "Externally it [the specimen] has all the characters of meteoric iron. The metal in the specimen is tough, of a whiter colour than common iron, and is covered on most parts with a thin film of the oxide of iron. The interstices contain olivine." The proportions of iron, nickel and cobalt in the specimen are given as follows (p. 228): Iron 93.4 Nickel 6.618 Cobalt 0.535 100.553 Undoubtedly Darwin obtained this reference by way of Woodbine Parish. See Parish, Buenos Ayres, pp. 257-263 for a discussion of the specimen, which Parish had collected, and of Turner's conclusions. Parish doubted the meteoric origin of the specimen. ^^° For such a map see Alexander von Humboldt, Atlas geographique et physique des regions equinoxiales du nouveau continent (Paris [F. Schoell], 1814), plate 5 entitled "Esquisse hyposometrique des noeuds de montagnes et des ramifications de la Cordillera des Andes depuis le Cap de Horn jusqu'a I'lsthme de Panama. . ." The library of the Geological Society of London does not presently hold a copy of this atlas, although, according to the librarian, it once may have. It does hold a presentation copy of the first four volumes of an octavo edition of Humboldt's voyage published in Paris by Librairie grecque-latine-allemande. Volumes 1 and 2 are dated 1816; volumes 3 and 4, 1817. The title pages of these volumes refer to an accompanying atlas, but, from the evidence of library catalogues, it is questionable whether one was published specifically for this edition. 189 Woodbine Parish (note 143), personal communication. Parish did not include this account in Buenos Ayres. '^^ Edmond Temple, Travels in Various Parts of Peru, Including A Year's Residence in Potosi, vol. 1, p. 1 16: "[January] 19th [1826], when about to rise with the sun, as was our custom, we suddenly felt ourselves shaken in our beds, and thought it NOTES 125 was occasioned by a dog or a pig, frequent visitors prowling about for the fragments of the last meal; we therefore all, at the same moment, looked under our beds, with the intention of chasing away the intruder." And, p. 146: "Did you feel the earth- quake?— At what hour? — Where were you at the time? — What did you fancy? — What did you do ? — These are questions I am putting to every body I chance to converse with, and I do not think I ever felt greater interest on any subject than in the various accounts I hear respecting this phenomenon." Temple's description of his route (p. 109) places him in the province of Santiago del Estero, just over the border of the province of Cordoba, at the time when the earthquake occurred. For the account of an earthquake in Cordoba causing the disappearance of a lake see note 171. ^^^ Arsene Isabelle, Voyage a Buenos-Ayres et a Porta- Alegre. . .1830-1834 (Havre, 1835), pp. 454-455: " Au nord-est dupasso, a distance de quatre a cinq lieues, est une montagne boisee, appelee Serra do Butucarahy, s'etendant un peu a sa base, a Test et a I'ouest, formant comme un chainon de monts eleves independans de la Serra-Grande, et d'ailleurs place dans une direction parallele a celle-ci. Vue de loin (on I'aper^oit du Jacuy), elle ne parait etre qu'un pic tres eleve, mais en approchant on voit que le mamelon du centre se termine par une plate forme assez grande. Je suis porte a croire que cette montagne est volcanique, parce queles moradores du lieu m'ont assure avoir entendu des detonations tres fortes dans son interieur; ils pretendent encore qu'il y a un lac a la cime, dont les eaux, en filtrant ou en debordant, produisent des eboulemens qui mettent a nu la roche qu'elle semble avoir pour noyau; aussi la partie superieure est — elle devenue inaccessible a cause de sa denudation. Apres les grandes pluies d'orage, et pendant les gelees, I'eau se trouvant dans les fissures du rocher en detache des fragmens qui tombent avec fracas; sa grande hauteur, ou plutot son isolement attire le tonnerre, ce qui fait que cette montagne est souvent foudroyee." The hill described is probably Coxilha which lies to the northeast of the Rio Botucarai [30° 0' S., 52° 46' W.] in Brazil. It is not an active volcano, nor are there any in the area. ^^^ Jean Baptiste Joseph Boussingault, ' Sur les tremblemens de terre des Andes', Bulletin de la Societe geologique de France, vol. 6 (1834—1835), pp. 54—56, as cited in Charles Lyell, Principles of Geology (4th ed. ; London, 1835), vol. 2, p. 96: "In Quito, many important revolutions in the physical features of the country are said to have resulted, within the memory of man, from the earthquakes by which it has been convulsed. M. Boussingault declares his belief, that if a full register had been kept of all the convulsions experienced here and in other populous districts of the Andes, it would be found that the trembling of the earth had been incessant. The frequency of the movement, he thinks, is not due to volcanic explosions, but to the continual falling in of masses of rock which have been fractured and upheaved in a solid form at a comparatively recent epoch. According to the same author, the height of several mountains of the Andes has diminished in modern times." This passage also occurred in the 5th or (March) 1837 edition of the Principles (vol. 2, p. 44), where Darwin may 126 SANDRA HERBERT have encountered it first in print. Darwin did not own a personal copy of the 4th edition. '^^ George Steuart Mackenzie (note 110) as quoted in John Barrow, Jr., A Visit to Iceland. . .1834 (London, 1835), p. 224: "This supposition [of lava blistering, see note 110] would appear to afford a better solution of the difficult problem of accounting for those blocks of lava that are perched on high ridges, than that given by Sir George Mackenzie, who imagines this lava to have flowed from the lower ground, and calls it the 'ascending lava.' He says — ' It is caused by the formation of a crust on the coating of the surface, and a case or tube being thus produced, the lava runs in the same manner as water in a pipe.'" The quotation is from Mackenzie, Travels in the Island of Iceland, p. 108. 19* Sir Henry Holland, F.R.S. (1788-1873), fashionable London physician, traveller, essayist, and a distant relative to Charles Darwin through Josiah Wedgwood the potter. Holland accompanied Sir George Steuart Mackenzie (note 110) to Iceland in 1810 and was the author of the 'Preliminary Dissertation on the History and Litera- ture of Iceland' in Mackenzie, Travels in the Island of Iceland, pp. 1-70. Apparently Darwin intended to consult him on the subject of blistered lava. On this see Barrow, A Visit to Iceland, p. 223 : " Dr. Holland, in his account of the Mineralogy of Iceland, seems to countenance the opinion of these masses having been thrown up on the very spot they occupy, observing there was one formation of lava which had every appear- ance of not having flowed. Speaking of these masses of lava, he says : — 'It was heaved up into large bubbles or blisters, some of which were round, and from a few feet to forty or fifty in diameter; others were long, some straight, and some waved. A great many of these bubbles had burst open, and displayed caverns of considerable depth.'" However, this description, which Barrow attributed to Holland, is rather to be found in Mackenzie's chapter entitled 'Mineralogy' in Travels in the Island of Iceland, p. 390. Barrow's error seems to have stemmed from a mistaken belief that Holland rather than Mackenzie wrote the chapter on mineralogy. See also VI, pp. 95-96, and 103. '9' Barrow, A Visit to Iceland, pp. 276-277: "Here, then, we have the plain and undeniable evidence of subterranean or sub-marine fire, exerting its influence under the sea, almost in a direct line, to the extent of 16 1/2 degrees of latitude, or more than 1 100 statute miles. If we are to suppose that one and the same efficient cause has been exerted in heaving up this extended line of igneous formations, from Fairhead to Jan Meyen, we may form some vague notion how deep-seated the fiery focus must be to impart iis force, perhaps through numerous apertures, in a line of so great an extent, and nearly in the same direction. It may probably be considered the more remarkable, that no indication whatever is found of volcanic fire on the coast-line of Old Green- land, close to the westward of the last-mentioned island, and also to Iceland, nor on that of Norway on the opposite side, nor on that of Spitzbergen; on these places all is granite, porphyry, gneiss, mica-slate, clay-slate, lime, marble, and sandstone." NOTES 127 ''® 'Bosh' is written in the margin in pencil. Other entries on the page are in ink. ^^' Alexander von Humboldt, Political Essay on the Kingdom of New Spain (London, 1811), vol. 3, p. 113. Quoted correctly with minor variations in capitalization, punctuation, and the insertion of ' & ' for ' and '. 1^8 Robert Brown, F.R.S. (1773-1858), pre-eminent British botanist of his day, from 1806 to 1822 librarian to and thereafter a fellow of the Linnean Society of London. In 1827 Brown arranged for the transfer of the botanical collection of Sir Joseph Banks, F.R.S. (1743-1820) to the British Museum, and from 1827 to his death Brown supervised the botanical collections of the Museum. Brown also assembled a valuable collection of fossil woods ('F.W.') which he bequeathed to the Museum. ^^^ Darwin was referring here to the opinion of James Hutton (note 130) respect- ing the formation of fossil wood. In Hutton's view 'undulations' in silicified fossil wood would be traced to the action of exterior heat and pressure. See Playfair, Illus- trations of the Huttonian Theory of the Earth, pp. 24—25: ". . .wherever they [fossils] bear marks of having been fluid, these marks are such as characterize the fluidity of fusion [caused by igneous consolidation], and distinguish it from that which is pro- duced by solution in a menstruum. . . . Fossil-wood, penetrated by siliceous matter, is a substance well known to mineralogists; it is found in great abundance in various situations, and frequently in the heart of great bodies of rock. On examination, the siliceous matter is often observed to have penetrated the wood very unequally, so that the vegetable structure remains in some places entire ; and in other places is lost in a homogeneous mass of agate or jasper. Where this happens, it may be remarked, that the line which separates these two parts is quite sharp and distinct, altogether different from what must have taken place, had the flinty matter been introduced into the body of the wood, by any fluid in which it was dissolved, as it would then have pervaded the whole, if not uniformly, yet with a regular gradation. In those specimens of fossil-wood that are partly penetrated by agate, and partly not penetrated at all, the same sharpness of termination may be remarked, and is an appearance highly characteristic of the fluidity produced by fusion." '^°° Humboldt, Political Essay on the Kingdom of Nezv Spain, vol. 3, p. 113. The original quotation begins, 'The true native iron, . . . ' and varies slightly from Darwin's citation in punctuation and in the spelling out of the word 'and'. ^°^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 129-130: "The Mexican veins are to be found for the most part in primitive and transition rocks . . .and rarely in the rocks of secondary formation. . .In the old continent granite, gneiss and micaceous slate [glimmer -schiefer) constitute the crest of high chains of mountains. But these rocks seldom appear outwardly on the ridge of the Cordilleras of America, particularly in the central part contained between the 18° and 22° of north latitude. Beds of amphibolic porphyry, greenstone, amygdaloid, basalt and 128 SANDRA HERBERT Other trap formations of an enormous thickness cover the granite and conceal it from the geologist. The coast of Acapulco is formed of granite rock. Ascending towards the table land of Mexico we see the granite pierce through the porphyry for the last time between Zumpango and Sopilote. Farther to the east in the province of Oaxaca the granite and gneiss are visible in table lands of considerable extent traversed by veins of gold." ^"^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 131. The original sentence reads "The porphyries . . ." ^"^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 131-132: "They [the Mexican porphyries] are all characterized by the constant presence of amphibole and the absence of quartz, so common in the primitive porphyries of Europe, and especially in those which form beds in gneiss. The common felspar is rarely to be seen in the Mexican porphyries; and it belongs only to the most antient formations, those of Pachuca, Real del Monte and Moran, where the veins furnish twice as much silver as all Saxony. We frequently discover only vitreous felspar in the porphvries of Spanish America. The rock which is intersected by the rich gold vein of Villalpando near Guanaxuato is a porphyry of which the basis is somewhat a kin to klingstein (phonolite), and in which amphibole is extremely rare. Several of these parts of New Spain bear a great analogy to the problematical rocks of Hungary, designated by M. Born by the very vague denomination of saxum metalliferum. The veins of Zimapan which are the most instructive in respect to the theory of the stratification of minerals are intersected by porphyries of a greenstone base which appear to belong to trap rocks of new formation. These veins of Zimapan offer to oryctognostic collections a great variety of interesting minerals such as the fibrous zeolith, the stilbite, the grammalite, the pyenite, native sulphur, spar fluor, baryte suberiform asbestos, green grenats, carbonate and chromate of lead, orpiment, chrysoprase, and a new species of opal of the rarest beauty, which I made known in Europe, and which M. M. Karsten and Klaproth have described under the name of (feuer-opal)." ^°^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 133-134: " In proportion as the north of Mexico shall be examined by intelligent geologists, it will be perceived that the metallick wealth of Mexico does not exclusively belong to primitive earths and mountains of transition, but extend also to those of secondary formation. I know not whether the lead which is procured in the eastern parts of the intendancy of San Luis Potosi is found in veins or beds, but it appears certain, that the veins of silver of the real de Catorce, as well as those of the Doctor and Xaschi near Zimapan, traverse the alpine lime-stone (alpenkalkstein); and this rock reposes on a poudingue with silicious cement which may be considered as the most antient of secondary formations. The alpine lime-stone and the jura lime-stone (jurakalkstein) contain the celebrated silver mines of Tasco and Teuilotepec in the intendancy of Mexico; and it is in these calcareous rocks that the numerous veins which in this NOTES 129 country have been very early wrought, display the greatest wealth.. . .The result of this general view of the metalliferous depositories (erzfiihrende lagerstatte) is that the Cordilleras of Mexico contain veins in a great variety of rocks, and that those rocks which at present furnish almost the whole silver annually exported from Vera Cruz, are the primitive slate, the grauwakke, and the alpine lime-stone, intersected by the principal veins of Guanaxuato, Zacatecas and Catorce." ^"^ Friedrich Hoffmann, Geschichte der Geognosie (Berlin, 1838), the section 'Dampfe verandern die vulkanischen Gesteine', pp. 480^81. This entry is written in small handwriting in light brown ink, as are all other bracketed entries on page 165e. ^"^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 128 : " How can he [the naturalist] draw general results from the observation of a multitude of small phenomena [regarding metalliferous deposits], modified by causes of a purely local nature, and appearing to be the effects of an action of chemical affinities, circum- scribed to a very narrow space?" ^"^ Eilhert Mitscherlich, 'On Artificial Crystals of Oxide of Iron', Edinburgh Journal of Natural and Geographic Science, vol. 2 (1830), p. 302: "So greatly do these [crystals of oxide of iron in a pottery furnace] resemble the crystals [of specular iron] from volcanoes, that the same theory of formation may be applied to both. The first are formed in a pottery furnace, in which the vessels, when baked, are glazed by means of common salt. The clay used consists principally of silica, alumina, and a little oxide of iron. The salt is volatilized, and water coming in contact with the surface of the vessels, new compounds are produced, the water is decomposed, muriatic acid is formed, and the soda produced unites with the silica to make the necessary glass. As to the oxide of iron, its history will be best understood by an experiment or two. If a mixture of salt, oxide of iron, and silica, be heated to redness in a tube, and water in vapour be passed over it, much muriatic acid is formed, but very little chloride of iron, and crys- tallized oxide of iron will be found in the mass: but if muriatic acid be brought in contact with ignited oxide of iron, water and chloride of iron are formed, and sublime; if the chloride of iron come in contact with more water, muriatic acid is first developed, then chloride of iron, and a residue of crystallized oxide of iron remains. The formation of chloride of iron by the action of muriatic acid upon oxide of iron appears, therefore, to depend upon the proportion of water present. M. Mitscherlich applies these experi- ments and principles in explanation of the manner in which volcanic crystallized oxide of iron is formed — all the conditions necessary, according to the above view, being present in those cases, where heretofore it had been supposed the oxide of iron, as such, had been actually sublimed." ^"^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 1 34, " Thus it is in a primitive slate (ur-thon schiefer) on which a clavey porphyry containing grenats reposes, that the wealth of Potosi in the kingdom of Buenos- Ayres is contained. 130 SANDRA HERBERT On the other hand, in Peru the mines of Gualgayoc or Chota and that of Yauricocha or Pasco which together yield annually double the quantity of all the German mines, are found in an alpine lime-stone. The more we study the geological constitution of the globe on a large scale the more we perceive that there is scarcely a rock which has not in certain countries been found eminently metalliferous. The wealth of the veins is for the most part totally independent of the nature of the beds which they intersect." And pp. 142-143; "The province of Quito, and the Eastern part of the kingdom of New Granada, from the 3° of South latitude, to the 7° of North latitude; the Isthmus of Panama, and the mountains of Guatimala, contain for a length of 600 leagues, vast extents of ground in which no vein has hitherto been wrought with any degree of success. It would not, however, be accurate to advance that these countries which have in a degree, been convulsed with volcanos are entirely destitute of gold and silver ore. Numerous metalliferous depositories may be concealed by the super-position of strata of basalt, amygdaloid, porphyry with greenstone base, and other rocks compre- hended by geologists, under the general name of trapp-formation." ^°^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 152-153 ; " In Peru, the greatest part of the silver extracted from the bowels of the earth is furnished by the pacos, a sort of ores of an earthy appearance, which M. [Martin Heinrich] Klaproth was so good as to analyse at my request, and which consist of a mixture of almost imperceptible parcels of native silver, with the brown oxyde of iron. In Mexico on the other hand, the greatest quantity of silver annually brought into circulation, is derived from those ores which the Saxon miner calls by the name of diirre erze especially from sulfuretted silver, (or \\xrQus glaserz) from arsenical grey- copper (Jahlerz) and antimony, {grau or schwarzgiltigerz) from muriated silver, (hnrnerz) from prismatic black silver, [spodglaserz), and from red silver (rothgiltiges). We do not name native silver among these ores, because it is not found in sufficient abundance to admit of any very considerable part of the total produce of the mines of New Spain being attributed to it." Also p. 154;" The muriated silver which is so seldom found in the veins of Europe, is very abundant in the mines of Catorce, Fresnillo, and the Cerro San Pedro, near the town of San Luis Potosi. ... In the veins of Catorce, the muriated silver is accompanied with molybated lead, [gelb-blei-erz) and phosphated lead (griinblei-erz)." And p. 155; "The true mine of white silver (weissgiltig-erz) is very rare in Mexico. Its variety greyish white, very rich in lead, is to be found however in the intendancy of Sonora, in the veins of Cosala, where it is accompanied with argentiferous galena, red silver, brown blende, quartz and sulfated barytes. This last substance which is very uncommon among the gangues of Mexico, is to be also found at the Real del Doctor, near Baranca de las Tinajas, and at Sombrerete, particularly in the mine called Campechana. Spar-fluor has been only found hitherto in the veins of Lomo del Toro, near Zimapan, at Bolanos and Guadalcazar, near Catorce." NOTES 131 ^^° Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 156. Quoted exactly e.xcept for the abbreviation of ' and ' to ' & ' and the deletion of a comma after 'silver'. ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 157: "Native Silver, which is much less abundant in America, than is generally supposed, has been found in considerable masses, sometimes weighing more than 200 killo- grammes [441 lbs], in the seams of Batopilas in New Biscay. These mines, which are not very briskly wrought at present, are among the most northern of New Spain. Nature exhibits the same minerals there, that are found in the vein of Kongsberg in Norway. Those of Batopilas contain filiform dendritic and silver, which intersects with that of carbonated lime." ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 157-158: "Native silver is constantly accompanied hy glaserz [sulfuretted silver] in the seams of Mexico, as well as in those of the mountains of Europe. . .From time to time small branches, or cylindrical filaments of native silver, are also discovered in the celebrated vein of Guanaxuato ; but these masses have never been so considerable as those which were formerly drawn from the mine del Encino near Pachuca and Tasco, where native silver is sometimes contained in folia of selenite." ^'^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 158: "A great part of the silver annually produced in Europe, is derived from the argentiferous sulfuretted lead {silberhaltiger bleiglanz) which is sometimes found in the veins which intersect primitive and transition mountains, and sometimes on particular beds (erzfloze) in rocks of secondary formation. In the kingdom of New Spain, the greatest part of the veins contain very little argentiferous galena; but there are very few mines in which lead ore is a particular object of their operations." ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 159: "A very considerable quantity of silver is produced from the smelting of the martial pyrites (gemeine schwefelkiese) of which New Spain sometimes exhibits varieties richer than the glaserz itself. . .It is a very common prejudice in Europe, that great masses of native silver are extremelv common in Mexico and Peru. . ..\lso pp. 160-161 : "It appears that at the formation of veins in every climate, the distribution of silver has been very unequal; sometimes concentrated in one point, and at other times dissemi- nated in the gangue, and allied with other metals." And p. 162: "Although the New Continent, however, has not hitherto exhibited native silver in such considerable blocks as the Old, this metal is found more abundantly in a state of perfect purity in Peru and Mexico, than in any other quarter of the globe." "^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 176: "What is the nature of the metalliferous depository, which has furnished these immense riches, and which may be considered as the Potosi of the northern hemisphere ? What is the 132 SANDRA HERBERT position of the rock which crosses the veins of Guanaxuato ? These questions are of so great importance that I must here give a geological view of so remarkable a country. The most ancient rock known in the district of Guanaxuato, is the clay slate {than schiefer). ... It is of an ash-grey or greyish-black frequently intersected by an infinity of small quartz veins, which frequently pass into talk-state [sic] (talk schiefer) and mlo schistous chlorite." Also, pp. 177-178: "On digging the great pit {tiro general) of Valenciana, they discovered banks of syenite of Hornblend slate (Hornblend schiefer) and true serpentine, altering with one another, and forming subordinate beds, in the clay slate.. . .These strata [of clay slate] are very regularly directed h. 8 to 9 of the miner's compass; they are inclined from 45 to 50 degrees to the south west.. . .Two very different formations repose on the clay slate: the one of porphyry. . .and the other, of o\d freestone in the ravins, and table lands of small elevation." And pp. 179- 1 80 : " This porphyry ... is generally of a greenish colour. . . . The most recent [beds] . . . contain vitreous felspar, inchased in a mass, w'hich sometimes passes into the petrosilex jadien, and sometimes into the pholonite [sic] or klingstein of Werner. . . . All the porphyries of the district of Guanaxuato possess this in common, that amphibole is almost as rare in them as quartz and mica." 21^ Humboldt, Political Essay on the Kingdom of Netv Spain, vol. 3, pp. 180-183: "This free-stone {urfelsconglomerat) is a brescia with clayey cement, mixed with oxide of iron, in which are imbedded angulous fragments of quartz, Lydian stone, syenite, porphyry, and splintery hornstone. . . .This formation of old free-stone is the same with that which appears at the surface in the plains of the river Amazon, in South America. . . . We must not confound the brescia which contains imbedded fragments of primitive and transition rock, with another freestone, which may be designated by the name of felspar agglomeration. . . . This agglomeration ... is composed of grains of quartz, small fragments of slate, and felspar chrystals, partly broken, and partly remaining untouched.. . .Probably the destruction of porphyries has had the greatest influence on the formation of this felspar freestone. It contrasts with the freestone of the Old Continent, in which some chrvstals of grenats and amphibole have been found, but never. . .felspar in anv abundance. The most experienced mineralogist, after examining the position of the lozero [agglomeration] of Guanaxuato, would be tempted to take it at first view, for a porphyry with clayey base, or for a porphyritic brescia (triimmer-porphyr). . . . These formations of old freestone of Guanaxuato, serve as bases to other secondary beds, which in their position, that is to say in the order of their superposition, exhibit the greatest analogy with the secondary rocks of central Europe. In the plains of Temascatio. . .there is a compact limestone. . ." '^'' Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 185: "The vein (veto madre) [of Guanaxuato] traverses both clay slate and porphyry. In both of these rocks, very considerable wealth has been found. Its mean direction is. . . [N. 52° W.j and is nearly the same with that of the zeta grande of Zacatecas, and of the veins NOTES 133 of Tasco and Moran, which are all western veins (spathgange). The inclination of the vein of Guanaxuato, is 45 or 48 degrees to the south west." Also pp. 186-187: "The veto madre of Guanaxuato, bears a good deal of resemblance to the celebrated vein of Spital of Schemnitz, in Hungary. The European miners who have had occasion to examine both these depositories of minerals, have been in doubt whether to consider them as true veins, or as metalliferous beds (erzlager). ... If the reta madre was really a bed, we should not find angular fragments of its roof contained in its mass, as we generally observe on points where the roof is a slate charged with carbone, and the wall a talc slate. In a vein, the roof and the wall are deemed anterior to the formation of the crevice, and to the minerals which have successfully filled it; but a bed has undoubtedly pre-existed to the strata of the rock which compose its roof. [Hence] we may discover in a bed fragments of the wall, but never pieces detached from the roof." ^^^ Erasmus Darwin, The Botanic Garden (4th ed.; London, 1799), vol. 1, p. 18: "The air, like all other bad conductors of electricity, is known to be a bad conductor of heat.. . ." Also see p. 11 on the subject of shooting stars and fireballs and pp. 249- 258 for a discussion of meteors. ^■'^ Woodbine Parish (note 143). See note 187 and see also Parish, 'Notice as to the supposed Identity of the large Mass of Meteoric Iron now in the British Museum, with the celebrated Otumpa Iron described by Rubin de Cells in the Philosophical Transactions for 1786', Philosophical Transactions of the Royal Society of London, vol. 124(1834), pp. 53-54. ^^° Ernst Florenz Friedrich Chladni, 'Supplement au catalogue des meteores, a la suite desquels des pierres ou des masses de fer sont toxnh€t&' , Journal des mines, vol. 26 (1809), pp. 79-80. Speaking of meteorites Chladni wrote (p. 80), " II parait qu'on doit aussi ranger parmi les masses dont il s'agit, celle d'un fer malleable, du poids de 97 myriagrammes, qu'un mineralogiste saxon, M. Sonnenschmidt, a trouvee dans la ville de Zacatecas, dans la Nouvelle-Espagne, ou il etait directeur des mines." Alexander von Humboldt (note 38) also reported the existence of this stone. See Humboldt, Political Essay on the Kingdom of New Spain, vol. 2, p. 293. ^^^ Alcide Dessalines d'Orbigny, Voyage dans I'Amerique meridionale ... 1826- 1833, vol. 5, part 1 (Paris and Strasbourg, 1847), pp. 140-144 and plate 10. Individual sections of this volume were published separately earlier. According to a typewritten list compiled in 1933 by Charles Davies Sherborn of the British Museum (Natural History), the section which includes pp. 140-144 was published in 1835 and plate 10 in 1834. The three species described by d'Orbigny were Sagitta triptera, Sagitta exaptera, and Sagitta diptera. In this entry Darwin was noting the similarity of one of his unidentified specimens to Sagitta triptera. The genus Sagitta or ' Fleche' had been established by Jean Rene Constantin Quoy and Paul Gaimard in their 'Observations zoologiques faites a bord de 1' Astrolabe, en Mai 1826, dans le Detroit de Gilbraltar', 134 SANDRA HERBERT Annates des sciences naturelles, vol. 10 (1827), p. 232-233. Presumably Darwin's 'additional information' on the genus appeared in his later article, 'Observations on the Structure and Propagation of the genus Sagitta', Annals and Magazine of Natural History, vol. 8 (1844), pp. 1-6 with plate. ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 189. Quoted exactly except for minor variations in punctuation, the abbreviation of 'and' to '&' and the lack of emphasis on foreign words by way of underlining. ^^' Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 205 : " The veta grande, or principal vein [at Zacatecas], has the same direction as the veta madre of Guanaxuato; the others are generally in a direction from east to west." And p. 207: "This wealth is displayed. . .not in the ravins, and where the veins run along the gentle slope of the mountains, but most frequently on the most elevated summits, on points where the surface appears to have been tumultuously torn, in the antient revolutions of the globe." -^* Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 210: "The greatest number of these veins [at Catorce] are western {spathgdnge); and their inclination is from 25° to 30° towards the north east." P. 223: ". . .the vein of Moran . . .inclined 84° to the north east. . ." P. 226: "The oldest rock which appears at the surface in this district of mines [at Tasco], is the primitive slate. ... Its direction is hor. 3-4; and its inclination 40° to the north-west.. . ." Also p. 227: "The district of mines of Tasco. . .contains a great number of veins. . .all directed from the north- w'est to the south-east, hor. 7-9." -^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 215: "What relation exists between these last beds [of porphyry], which several distin- guished mineralogists consider as volcanic productions, and the porphyries of Pachuca, Real del Monte, and Moran, in which nature has deposited enormous masses of sulfuretted silver and argentiferous pyrites ? This problem which is one of the most difficult in geology, will only be resolved when a great number of zealous and intelli- gent travellers, shall have gone over the Mexican Cordilleras, and carefully studied the immense variety of porphyries which are destitute of quartz, and which abound both in hornblend and vitreous felspar." ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 227: " These veins [in the mining districts of Tasco and the Real de Tehuilotepec], like those of Catorce, traverse both the limestone and the micaceous slate which serves for its base; and they exhibit the same metals in both rocks." ^^" Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, p. 230: " This formation [of veins, one of four types existing at Tasco and Tehuilotepec] which is the richest of all, displays the remarkable phenomenon, that the minerals the most abun- dant in silver, form spheroidal balls, from ten to twelve centimetres in diameter. ..." NOTES 135 ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 3, pp. 347-348: "The mines of Huantajaya, surrounded with beds of rock salt are particularly celebrated on account of the great masses of native silver which they contain in a decomposed gangue; and they furnish annually between 70 and 80 thousand marcs of silver. The muriate of conchoidal silver, sulphuretted silver, galena with small grains, quartz, carbonate of lime, accompany the native silver." Also pp. 348-349: "[Antonio de] Ulloa after travelling over a great part of the Andes, affirms that silver is peculiar to the high table lands of the Cordilleras, called Punas or Paramos, and that gold on the other hand abounds in the lowest, and consequently warmest regions; but this learned traveller appears to have forgot that in Peru the richest provinces in gold are the partidos of Pataz and Huailas, which are on the ridge of the Cordilleras. ... It [gold] has also been extracted from the right bank of the Rio de Micuipampa, between the Cerro de San Jose, and the plain called by the natives, Choropampa or plain of shells, on account of an enormous quantity of ostracites, cardium and other petrifications of sea shells contained in the formation of alpine limestone of Gualgayoc." ^^^ Louis Antoine de Bougainville, Voyage autoiir du monde . . .1766-1769, (2nd ed.; Paris, 1772), vol. 1, p. 291 : "Ces hommes bruts [the Fuegians] traitoient les chefs- d-ceuvre de I'industrie humaine, comme ils traitent les loix de la nature & ses pheno- menes." See J/?, p. 242. ^^° Juan and Ulloa, A Voyage to South America, vol. 1, pp. 168-169: "On the coast [at Guayaquil]. . .is found that exquisite purple, so highly esteemed among the ancients; but the fish from which it was taken, having been either unknown or for- gotten, many moderns have imagined the species to be extinct. This colour, however, is found in a species of shell-fish growing on rocks washed by the sea. Thev are some- thing larger than a nut, and are replete with a juice, probably the blood, which, when expressed, is the true purple; for if a thread of cotton, or any thing of a similar kind, be dipt in this liquor, it becomes of a most vivid colour, which repeated washings are so far from obliterating, that they rather improve it; nor does it fade by wearing. . . .Stuffs died with this purple are also highly valued. This precious juice is extracted by different methods. Some take the fish out of its shell, and laying it on the back of their hand, press it with a knife from the head to the tail, separating that part of the body into which the compression has forced the juice, and throw away the rest. In this manner they proceed till they have provided themselves with a sufficient quantity. Then they draw the threads through the liquor, which is the whole process. But the purple tinge does not immediately appear, the juice being at first of a milky colour; it then changes to green; and, lastly, into this celebrated purple. Others pursue a diff- erent method in extracting the colour; for they neither kill the fish, nor take it en- tirely out of its shell; but squeeze it so hard as to express a juice, with which they die the thread, and afterwards replace the fish on the rock whence it was taken." ^^' Juan and Ulloa, A Voyage to South America, vol. 1 , p. 281 : " As the pestilence, whose ravages among the human species in Europe, and other parts, are so dreadful, 136 SANDRA HERBERT is unknown both at Quito and throughout all America, so is also the madness in dogs. And though they have some idea of the pestilence, and call those diseases similar in their effects by that name, they are entirely ignorant of the canine madness; and express their astonishment when an European [sic] relates the melancholy effects of it." 232 T'jjis entry is written in light brow n ink. ^^^ Humboldt, Political Essay on the Kingdom of New Spain, vol. 4, p. 58: "It is observed at .Acapulco that the shakes take three different directions, sometimes coming from the west by the isthmus [which separates Acapulco from the Bay de la Langosta de la .\bra de San Nicolas] . . . sometimes from the north west as if they were from the volcano de Colima, and sometimes coming from the south. The earthquakes which are felt in the direction of the south are attributed to submarine volcanoes; for they see here, what I often observed at night in the Callao of Lima, that the sea becomes suddenly agitated in a most alarming manner in calm and serene weather when not a breath of wind is blowing." This entry is written in light brown ink. ^''* Of the petrified trees he found on the Uspallata range Darwin wrote {JR, p. 406): "Mr. Robert Brown [note 198] has been kind enough to examine the wood: he says it is coniferous, and that it partakes of the character of the .\raucarian tribe (to which the common South Chilian pine belongs), but with some curious points of affinity with the yew." Also see GSA, p. 202 for repetition of the same information. From Darwin's correspondence it is clear that Brown described the specimens of silicified wood sometime during the period from the end of March to mid-May 1837. On 28 March Darwin wrote to J. S. Henslow (note 148) telling of Brown's general interests in specimens from the Beagle voyage ; on 10 April Darwin wrote to the English naturalist Leonard Jenyns [later Leonard Blomefield] (1800-1893): "Tell Henslow, I think my silicified wood has unflintified Mr. Brown's heart"; and on 18 May Darwin wrote to Henslow with Brown's identification of the specimens. For the Darwin-Henslow letters see Nora Barlow, ed., Darwin and Henslow, pp. 125, 127. For the letter to Jenyns see Francis Darwin, ed., The Life and Letters of Charles Darwin (3rd ed. rev.; London, 1888), vol. 1, p. 282. ^^^ Jean Andre Deluc, Geological Travels. 3 vols. (London, 1810-1811). ^^^ Francis Beaufort, Karamania; or, A Brief Description of the South Coast of Asia-Minor and of the Remains of Antiquity, with Plans, Views, &c., Collected during a Survey of That Coast. . .in. ..1811-1812 (London, 1817). ^^'' Ross, A Voyage of Discovery . . .for the Purpose of Exploring Baffin's Ray, Appendix No. 3, 'Table of Soundings obtained in Davis' Strait and Baffin's Bay'. 238 William Scoresby, Jr., An Account of the Arctic Regions, with a History and Description of the Northern Whale-fishery (Edinburgh, 1820), vol. 1, pp. 184-194 NOTES 137 entitled, 'Temperature, Depth, and Pressure of the Greenland Sea, with a Descrip- tion of an Apparatus for bringing up Water from great Depths, and an Account of Experiments made with it'. ^^^ Gilbert Farquhar Mathison, Narrative of a Visit to Brazil, Chile, Peru, and the Sandwich Islands. . .1821-1822 (London, 1825). ^^° John Mawe, Travels in the Gold and Diamond Districts of Brazil (A new ed.; London, 1825). The first two editions of this work had been entitled Travels in the Interior of Brazil. This was, however, the edition which Darwin owned. ^^^ Alessandro Malaspina (1754—1809), Spanish navigator of Italian birth. From 1789-1794 Malaspina led a major Spanish scientific expedition to circumnavigate the earth. However, on his return to Spain, Malaspina fell from favour, partly owing to court intrigue and partly to Malaspina's critical attitude towards Spain's treatment of her colonies. Malaspina was imprisoned and the full account of his work, which was to run to seven volumes, was never completed. His own narrative of the voyage was finally published in 1885 under the title I'iaje politico-cientifico alrededor del mundo por las corbetas Descubierta v Atrevida . . .1789-1794 (Madrid, 1885). Earlier Malaspina's navigational work appeared in official Spanish charts, where it was much praised (see, for example. Parish, Buenos Ayres, pp. 96-98), although Malaspina was not credited for his contribution. A few of his observations were eventually published under his own name as 'Tablas de latitudes y longitudes de los principales puntos del Rio de la Plata', in Pedro de Angelis, Coleccion de obras y documentos relativos a la historia antigua y moderna de las provincias del Rio de la Plata (Buenos- Aires, 1837), vol. 6. ^^^ Faddei Faddeevich Bellinsgauzen, /jByKpaTHbia HSMCKaHia Bb lOsKHOMb JTeAO- BHTOMb OKcaHB. . .1819-1821 [Dvukratnia izyskaniia v lUzhnom Ledovitom Okeane . . .1819-1821]. 2 vols, plus atlas. (St. Petersburg, 1831). The original work was pub- lished in a limited edition of 600 copies. For an English translation see Frank Debenham, ed.. The Voyage of Captain Bellingshausen to the Antarctic Seas 1819-1821. 2 vols. (London, 1945). ^*^ Otto von Kotzebue, A Voyage of Discovery, into the South Sea and Beeritig's Straits. ..1815-1818. 3 vols. (London, 1821). 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Index to persons named in the Red Notebook Page references are to the original notebook Acosta, Jose de, 116 Angelis, Pedro de, 143e Aubuisson de Voisins, Jean Francois d', inside front cover Azara, Felix d', 126 Bailiy, Joseph-Charles, 118, 119, 120 Barrow, Jr., John, 159 Beaufort, Francis, 181 Beechey, Frederick William, 15e, 45e, 97e Bellinsgauzen, Faddei Faddeevich, 181 Bolingbroke, Henry, 124 Bory de Saint-Vincent, Jean Baptiste, 71 Bougainville, Louis Antoine de, 177e Boussingault, Jean Baptiste Joseph, 158e Brown, Mr, 155 Brown, Robert, 161 Buch, Leopold von, 44e, 137e, 150 Burchell, William J., 86, 134e Bynoe, Benjamin, 141e Carne, Joseph, 20e Chladni, Ernst Florenz Friedrich, 170e [172e] Conybeare, William D., 22, 46e, 47, 142e Cook, James, 140e Dampier, William, 8e, 10, 15e Darby, William, 84 Darwin, Caroline [?], 125 Darwin, Erasmus (brother), 115 Darwin, Erasmus (grandfather), 170e [172e] Daubeny, Charles, 38e, 43e, 44e, 47, 51, 89 Davy, Humphry, 95 De La Beche, Henry Thomas, 19e, 20e, 67e Deluc, Jean Andre, 181 Falkner, Thomas, 67e Fitton, William, 6e, 38e, 101 FitzRoy, Captain Robert, 67e, 135e Foster, Henry, 138 Fox, Robert Were, 20e Gaimard, Paul, 174e Gay, Claude, 65e Helms, Anthony Zachariah, 155 Henry, Samuel P., 12 Henslow, John Stevens, 5e, 7e, 127 Herschel, John, 32, 115 Hoffman, Friedrich, 165e Holland, Henry, 159 Humboldt, Alexander von, 24, 43e, 70, 72, 73, lOOe, 157e, 160, 163e, 164e, 165e, 166e, 171e, 176e, 177e Hutton. James, 112, 161 Isabelle, Arsene, 158e Klaproth, Martin Heinrich, 167e Kotzebue, Otto von, 181 Labillardiere, Jacques Julien Houtou de, 5e, 12 La Condamine, Charles Marie de, 56e La Perouse, Jean Francois Galaup de, 15e Lesson, Rene Primevere, 62, 101, 102 Lister, Joseph Jackson ['L. Jackson'], 24 Lyell, Charles, inside front cover, 44e, 52, 57, 60, 61, 63, 65e, 67e, 68e, 70, 79, 82, 83, 84, 88e, lOOe, 137e, 145e, 158e Mackenzie, George Steuart, 90, 159 Malaspina, Alessandro, 181 154 SANDRA HERBERT Marsden, Thomas, 90 Mathison, Gilbert Farquhar, 181 JNIawe, John, 181 Michell, John, 80 Miers, John, 56e, lOOe Mitscherlich, Eilhert, 165e Molina, Juan Ignacio, inside front cover, 63 Moreau de Jonnes, Alexandre, 90 Murchison, Roderick, 142e Orbigny, Alcide Dessalines d', 174e Owen, Richard, 113e, 127 Owen, William F. W., 64 Parish, Woodbine, 126, 142e, 143e, 155, 157e, 170e [172ei Pernety, Antoine Joseph, 102 Phillip, Arthur, 126 Phillips, William, 89 Playfair, John, 110 Powers, Mrs, 17 Quoy, Jean Rene Constantin, 174e Ross, John, 114e, 181 Roussin, Albin-Reinc, 22, 91 Rozales, Signor, 155 Scoresby, William, 181 Scrope, George Poulett, 77 Smith, Andrew, 32 Sorrell, Thomas, 99e Sowerby, James de Carle, 144e Sturt, Charles, 126 Temple, Edmond, 125, 157e Ulloa, Antonio de, 75, 105e, 125, 176e, 177e Volney, Constantin Franc^ois, 8e, 52 Webster, John W., 126 Webster, William H. B., 125 Subject index to the Red Notebook Page references are to the original notebook Adaptation of species in relation to extinc- tion, 133-134e Algae. See Confervae Alluvial plains not always most favourable to wild animals, 86 Andes, quantity of matter from crevice of, 136e Anglesea, geological strata of, 5e-7e Animal : effects of puncturing one with dead body of another, 178 ; with sets described by d'Orbigny, 174e Animals: preservation of, 115; at Spitz- bergen, 159 Antarctic vegetation, 125 Ascension Island : lamins in rocks, 45e ; vegetation and animal life, 79 Ash, volcanic, 67e Avestruz (rhea), 127, 130, 153 Basalt, columnar and orbicular structure of, 153 Bones, preservation of, 45e Boulders : none on South African plains or in Sydney, 32 ; travelled in Cordovise range, 155 : in upper strata in Europe in accordance with ice theory, 114e. See also Erratic blocks Breccia between primary and secondary formations, 110 Brecciated white stone of Chiloe, 42 Callao, country north of formerly covered by sea, 105e-106e Carcasses of animals floating to the sea, 65e Casts : preservation of, 42 ; of shells, 61 Channels, submarine, 86-87e Cleavage : cases of symmetrical structure, 38e ;crystalsof felspar arranged in planes, 21 ; Fitton's Australian case, 101 ; not explained by rotation of fluid in earth's interior, 41 ; of strata at Anglesea, 5e ; and veins, 21 Cliffs : origin of at St Helena, 38e-41 ; in relation to elevations, 60 ; at St Helena, Ascension, Azores, 107 Climate : changes in related to occurrences in earth's interior, 41 ; and horse. See also Species change ; Vegetation Coal, formation of, 34e-36e Cocos fish, 36e-37e Concepcion, strata at, 102 Concretionary action and chemical laws, 165e Concretionary structure in pitchstone, 121 Concretions : origin of form of at Chiloe, 160 ; in shells, 6Se Conductors of heat and electricity. 170e [172e] Confervae, floating marine, 5e Conglomerate(s) : of Amazon and Orinoco perhaps same as that of Pernambuco, lOOe ; formed in shallow water, 19e ; at Ischia, 90 ; removal of by ocean at Peuquenes, Portillo ranges, 151 ; trans- portal between two ranges, 152 Continents in relation to great movements, 117 Coral : germination of, 24 ; hypothesis, 117 ; reefs and limestone in N. Wales, 93e Cordillera : extent of, 155 ; gypseous forma- tion of, 137e; and horizontal movement of fluid matter, 149 ; lakes of, 155 ; lavas 156 SANDRA HERBERT Cordillera (continued) of, 87e ; lines of elevation connecting points of eruption, 137e ; map by Hum- boldt of, lS7e ; porphyry of, 87e Craters of elevation : and degradation of landlocked harbors, 144e ; in relation to inland bays, 139 Creation of new species : in relation to adaptation, 130 ; on volcanic islands, 127. See also Species change Crustacean living in brine, 127 Crust of earth, thinness of, 131, 154 Crystals arranging themselves in planes, 115 Cuba, serpentine form of, 24 Cuttlefish bones on surface of ocean near Abrolhos shoals, 10 Death of species, 129-130. See also Extinc- tion of species ; Loss of species Desert life, 52 Die, purple : from species of shellfish, 177e Dikes : carbonate of lime in Plas Xewydd dike, 7e ; chemical and physical aspects of, 78-79 ; chlorite in at Anglesea, 7e ; in Cordillera, 37e ; frequency of in granitic countries, 56e ; in Galapagos Archi- pelago, 31 ; pitchstone parting in at Vesuvius compared to St Helena, 63 ; in relation to volcanos, 58-59 ; variety in nature of, 7e Dogs, mad : none in Azores, 126. See also Hydrophobia Droughts : effect on animals in Buenos Ayres and Africa, 64— 65e list of, 126 Earth, fluid nucleus of, 111-112. See also Geology of world Earthquake(s) : at Acapulco, 177e; accom- panied by rains, 76-77 ; at Calabria, 75 ; cause of, 158e; at Concepcion, 155; connection between those of Sumatra and Priamang, 90; at Cordoba, 144e; at Cordova where lake absorbed, 157e-158e; at Dcmerara connected with shooting upwards of land, 124 ; drying up a lake. 142e ; of 1812, 70 ; elevation subsequent to more easily discovered inland than on coast, 75 ; fields of in Chili, 70 ; fissures of ground accompanving, 75 ; as part of necessary process of terrestrial renova- tion, 112 ; at Pasto, 144e ; present absence of at Mendoza, 158e ; at Quito, 158e ; in Radack and Ralix Islands, 101 ; report of one at sea, 33e ; at St Helena, 125; travelling 500 leagues, 116 ; travelling in order, 116; near Tucman and Salta, 1 57e ; Wager's the most southern, 17 ; waves accompanying at sea, 80-83 Electricity : affecting arrangement of crystals, 115; conducting of in slate vs unstratified rocks 6e Elevation : accompanied by partial shrink- ing of crust, 83 ; analogy of movement on West coast and plains of South America, 61 ; fluid rock as cause, 61 ; insensible at Concepcion, 149 ; of land near Red Sea, 148 ; operated more equably in South America than in France, 69 ; of Patagon- ian plains, 83 ; recent in South America, 60-61 ; of sea bottom at Concepcion, 106e; at Tierra del Fuego, 140e ; waves obliterating signs of, 115-116. See also Oscillations of level Elevations as constantly going on, 117 Epidote : in Anglesea, 6e ; in Australia, 6e Erratic blocks : angular vs rounded, 20e. See also Boulders European geology showing limited volcanic action and earthquakes, local elevation, 135e. See also Geology of world Extinction of species : in relation to adapta- tion, 133 ; in relation to death of individ- ual, 133. See also Death of species Falkland Islands: broken hill at, 102; cleavage at, 102 ; .Silurian fossils of, 144e ; stream of stones at, 102 Faults in South America, 37e Figure of earth. See Geology of world Fossil bones : of Miocene period blackened, 68e ; at St Julian, 113e SUBJECT INDEX 157 Fossil remains, sharks distributing, 12 Fossils of Falkland Islands, 142e Fossil wood : in collection of R. Brown, 161 ; as described by Hutton, 161 ; preserva- tion of dicotyledonous vs coniferous, 156 Fuegians, Bougainville's observation on, 177e Geographical distribution : of birds and animals in South America, 128; and occurrence of allied species, 153 ; of plants in Chili, 52; of rats, 129; of waders, 128 Geological forces, arguments for slow acting, 108-109 Geology of world : analogy between Weal- den and Bolivia, 152 ; conclusions drawn from Europe and America applicable, 18 ; powers acting from great depths, 123 ; question of relation between rising and falling areas, 77; reference to, 180; as related to rotation in fluid matter of globe, 41 ; simplicity of, 72 ; South America and Europe compared, 125 ; and vertical movements, 73 Glaciers most abundant in interior channels 135e Gold mines of Cordillera, 176e Gradualism, arguments for, 108-109 Granite : metalliferous in contact with sedi- mentary rocks in Alps, lOOe ; orbicular structure of, 153; in relation to breccia between primary and secondary forma- tions, 110 Gravel as origin of white beds in Patagonia 114e Greenstone cones, origin of, 88e-89 Greywacke generally absent in Tierra del Fuego, 99e Guanuaxuato, geology of, 170e-171e, 175e Habitation in perpetual snow, subterranean lakes, near volcanos, and in lakes of brine, 128 Hippopotamus bones, preservation of in shark's belly, 8e-9 H.M.S. Beagle, dates relating to voyage, inside front cover Horse not perished because climate too cold, 113e Hydrophobia, absence of at various places, 177e. See also Dogs, mad Ice, 14Ie ; and columnar structure of com- pared to granite and basalt, 153 Icebergs stranded on shores of Georgia, 99e Ice theory and boulders, 114e Indians and use of arrows, 156 Infusoria, inside front cover Inosculation of species, 130 Iron : in combination resisting oxidation, 170e[172e]; masses of as described by Humboldt, 160-161 ; specimen of from Atacama, 156 Lava : bubbles in, 1 59 ; in Cordillera and on Eastern plains by Antuco, 143e ; flowing up hill, 159 ; freshness of at Ascension, 17 ; in Iceland, 90 Life at 1,000 fathoms below freezing point, 114e Limestone(s) : formed in shallow water, 19e ; origin of in N. Wales, 93e Llama, cause of extinction of one form of, 129 Loss of species, causes of in South America, 85 Mastodon inhabiting plains of Patagonia as Rhinoceros inhabits S. Africa, 85-86 Mauritius : main skeleton of mountains of, 118-120; volcanic cone of, 119-120 Megatherium, loss of in South America, 85 Metals : absent in Polynesian Islands, 145e ; in Mexico, Humboldt on, 160-171e, 175e-176e ; transportationof by chemical means, 16Se Metamorphic action coming near surface, 156 Metamorphism of shales, 63 158 SANDRA HERBERT Meteoric iron, 160-162 Meteoric stone(s) : magnetic quality of in relation to origin, 162; Mexican, 170e [172e] Meteorology', information on in Dampier's and Volney's travels, 8e Mountains : as fractures consequent on grand rise, 48 ; as lines of effect of expan- sions acting at great depths, 101 ; of Mauritius, 118-120 New South Wales, sandstone and granite districts in, 101 New Zeeland (Zealand) : north part of volcanic, 102 ; rich in particular genera of plants, 62, 102 Nodules in clay slate and gneiss, 5e North American geology in Silliman's Journal, 142e Notes by author on content of Red Note- book,'180 Ocean bottom : changes in, 97e ; deepening on E. coast Africa as at Brazil, 91 ; deep off Pacifick coast, 97e ; life at, 19e, 1 14e ; and preservation of animals, 115 ; slope of at shore, 97e-98e Ocean surf and organic productions, 93e- 95e Organic productions and ocean surf, 93e- 95e Oscillations of level of land : as caused by movement of viscid nucleus, 48 ; as correlated with beds, 46e-48 ; in Europe as compared to Cordillera, 22 ; as regard formations described by Convbeare, 23 ; with respect to Secondary formation, 51 ; in the upheaval of Andes, 64. See also Geology of world Oysters above reach of tides at Santos, 134e Patagonian shingle interstratificd with sediment, lOOe Pearlstones, layers of, 89 Pebbles : blended by travelling in swell, 67e ; in Cordillera as mark of elevation, 99e ; distribution of, 50 ; on Pampas and near Amazon, 56 ;of porphyry at Falkland Islands, 140e ; in relation to white matter beneath them, 62 ; at St Helena coated with Tosca, 84 ; white matter beneath them destructive to animal life, 62 Petrifaction of limestone, 23 Pitchstone, origin of brecciated structure of, 121 Porphyry : of Mexican Cordillera, 176e ; of Mexico rich in gold and silver, 163e; in Valle del Yeso upheaved in dry form, 68e. See also Rocks, porphyritic Preservation of a man's body at Deception Island, 139 Primitive formations, 110, 163e Propagation of species compared to individ- uals, 132 Pumice, scarcity of at Auvergne and in Galapagos, 38e Quadrupeds in connection with movement of land at Tierra del Fuego, 140e Rains accompanying earthquakes, 76-77 Representation of species, 130 Rhinoceros, nature of the country it inhab- its, 85-86 Rise of land as evidenced by shells at Rio de Janeiro, 65e Rocks : brought home by Capt. Foster expedition, 138; buoyed with kelp, 52; calcareous, 120-121 ; difference of plu- tonic and volcanic metalliferous, 136e; grooves in, 69; igneous, 123 ; porphyri- tic, 86 ; volcanic, 67e, 144e ; volcanic and plutonic, 79 Rubber, Indian, 178 Sagitta triptera, 174e St Helena, native mounse of, 79 Sand, movement of causing sound, 50-51 Sandstone from Falkland Islands, 142e SUBJECT INDEX 159 Sea : action of on coast, 93e ; as agency in the formation of minerals, 28-31 ; power of in altering land, 148 Seaweed at Kerguelen Island, 140-141e Secondary formation(s), 33e, 47, 51, 110, 163e-164e Sharks, range of, front cover Shells : as argument for rise, 37e ; on banks of Red River, 84 ; at Concepcion, 106e ; frequency of in concretions and in flints, 27 ; inland from Quilmes to Punta Indio, 143e; at Quillota, lOOe Shoaling of coast(s) : 4Se, 180; in Brazil, 16e; around globe, 15e; and ratio of gravel, sand deposits, 91. See also Ocean bottom Silicified bones, 22 Silicified wood : preservation of, 46e ; specimen of, 178 Silurian rocks at Falkland Islands, 142e, 144e Silver: mines of, 166e, 168e-169e, 175e- 176e ; ores of in Peru, Mexico, and Europe, 167e Solfataras, products of, 162 Solution and deposition under pressure, laws of, 170e[172e] South American geology : character of, 71 ; and vulcanism, 145e Space as a relation between species, 130 Species change : and adaptation, 133-134e ; affected by neighbouring continent, 127- 128 ; and allied species, 153 ; and changes undergone by simple vs complex animals, inside front cover ; and common parents, 153 ; and life-span of species, 129 ; not gradual, 130; not progressive, 127; and propagation, 131 ; and the relation of species over time, space, 130 ; and repre- sentative species, 130; and volcanic islands, 127 Springs : life in, 127 ; in relation to rain water, 31 ; at S. Cruz, 140e Strata : dislocation of, 147 ; formation of in England, 45e ; at Hobart town compared to Tierra del Fuego, 21 ; in Patagonia, 86 ; secondary, accumulating off Galap- agos, 55e ; subsidence of in Chiloe, 87e Submarine tilting, 68e Subsidence : at Ascension, 60 ; caused by movement fluid matter, 77 ; indicated by silicified trees, 152, 154; at Tierra del Fuego, 140e Terraces : in Chili compared to St. Jago, 99e ; preservation of in valleys, 63 Tertiary formations 20e, 36e, 47, 102 Tierra del Fuego : origin of form of land at, 140e ; soundings off, 140e Time as a relation between species, 130 Trachytes, steam acting on, 165e Transmutation. See Species change Valleys, transverse : role of tides in forming, 141e Van Diemen Land, granite of, 120 Vegetation : of Antarctic, 125 ; and climate on islands, 138; correlation of with animal life, 134e; at Deception Island, 139 ; limits of at South Shetland, 128 ; in relation to Indian habitation, 125 ; on two sides of Cordillera, 128 Veins : described by Lyell, 88e ; ferruginous in sandstone, 66e ; metallic, 20e, 164e- 166e ; at Monte Video, 87e ; of quartz rare, 7e ; richest for mining at Potosi, 106e ; containing silver, 168e-171e, I75e- 176e Volcanic action : Barrow's opinion of line of, 159 ; none on coastline of Old Green- land, 159; against Sir J. Herschel's explanation of, 32 Volcanic activity, origin of in relation to dislocation of strata, 146-147 Volcanic ash, pisolitic balls in, 72 Volcanic craters : chimney shape of, 1 10 ; in relation to cliffs, 107 Volcanic eruptions : as accidents which are part of a regular system, 76 ; difficulty of gaining information on, 75 ; distribution of, 70 ; effects accompanying when sub- marine, 74 ; periods of, 70 ; at Mauritius, 160 SANDRA HERBERT Volcanic eruptions (continued) 71 ; simultaneous with Lima earthquake, 75 Volcanic islands and species change, 127 Volcanic theon,-, 79 Volcanos : as chemical retorts, 78 ; construc- tion of, 43e^He ; described by Isabelle, 158e ; distribution of, 43e ; interior structure of, 57-59 ; as linked with elevations in long duration, 117; origin of in Cordillera, 10-1 1 ; in Pampas, 144e ; as platforms for coral reefs, 90-91 ; sulphureous of Java, 137e; as useful chemical instruments, 112; vapours of, 44e Voyages : Chanticleer's, 33e ; to read, 181 ; Roussin's, 22 Waves, form of accompanving earthquakes, 80-83 Wood, conversion of to siliceous, pyritous and coaly matter, 28 Geographical index to the Red Notebook Page references are to the original notebook Abrolhos shoals, 10, 16e Acapulco, 163e, 177e Africa, 64-65e, 91, 97e Aleutian Archipelago, 38e Alps, lOOe Amazon River, 56e, lOOe, 170e America, 18, 97e, 105e, 169e America, northwest coastline of, 15e, 45e, 97e Andes mountains, 7e, 11, 44e, 52, 64, 69, 125, 136e. See also Cordillera Anglesea (Anglesey), 5e-7e Antarctic (Antarctica), 125 Antuco, 143e Araucaria (Araucania), 178 Arequipa, 116 Ascension Island, 17, 42, 45e, 60, 72, 79, 89-90, 93e, 107, 129 Atacama, 156 Auckland Islands, 138 Australia, 6e, 9, 30, 38e, 66e, 72, 73, 97e, 101, 127, 177e Auvergne, 38e Azores, 107, 126, 165e, 177e Bahama Islands, 27, 180 Bahia (Salvador), 16e, 56e, 66e, 93e-94e Bahia Blanca, 67e-68e, 113e Banda Oriental, 56e Banska Stiavnica. See Schemnitz Batopilas, 168e Beagle Channel, 148 Bermejo, Rio. See Vermejo Bolivia, 152 Brazil, 15e-16e, 33e, 63, 91, 98e, 131, 143e, 181 Britain, 22, 50 Buenos Ayres (Buenos Aires), 64 Calabria, 75, 83 California, Gulf of, 148 Callao, 95e, 105e-106e Cape of Good Hope, 15e, 56e, 134e, 177e Cape Verde Islands, 99e. See also St Jago Carelmapu, 34e Caracas, 70, 110 Catorce, 175e Chesil Bank [Portland, England], 67e Chili (Chile), 31, 34e, 36e, 40e, 52, 56e, 68e, 70, 75, 76, 80, 99e, 116 Chilioe (Chiloe), 20e, 28, 34e, 42, 46e, 66e, 69,71, 87e, 130, 160, 165e-166e Chonos Archipelago, 7e, 36e, 56e, 63 Chota, 166e Christmas Sound, 140e Chupat, River (Ri'o Chubat), 67e Chuquisaca, 155 Cocos Islands (Keeling Islands), 105e. See also Keeling Islands Concepcion (Concepcion), 7e, 22, 24, 34e, 36e, 71, 75, 82, 102, 106e, 115, 149, 154-155 Copiap6, 40e, 50, 56e, 71, 155 Coquimbo, 24, 42, 61, 102 Cordillera, 10, 22, 32, 37e, 41, 46e, 74, 76, 87e-88e, 99e, 128, 131, 136e-137e, 143e- 144e, 149-152, 155, 157e, 163e, 176e. See also Andes Cordoba, Cordova (Cordoba), 142e, 144e, 157e-158e Cordivise range (Sierra de Cordoba), 155 Cornwall, 59 162 SA>rDRA HERBERT Corstorphine hills. See Costorphine hills Corstorphine hills (Corstorphine hills) [Edinburgh], 69 Cotopaxi, 43e Crozet Islands, 138 Cuba, 24 Deception Island, 139 Defonsos. See II Defonsos Demerara (Guyana), 33e, 124 Desaguadero, 155 East Indian Archipelago (Malay Archi- pelago), 5e, 9, 38e England, 34e, 37e, 45e-47, 50-51, 55e, lOOe Etna, 57, 137e Europe, 18, 22, 38e, 49, 73, 110, 114e, 125, 135e, 167e, 169e Famine, Port (Puerto del Hambre) [Tierra del Fuego], 99e France, 68e-69 Friendly Islands (Tonga), 12 Falkland Islands, 98e, 102, 140e, 142e, 144e Frio, Cape (Cabo Frio), 16e Galapagos Islands (Galapagos Islands), 31, 38e, 43e, 55e, 60, 69, 72, 90, 105e, 110, 165e, 177e Garcia de Avila [Brazil], 16e Georgia. See South Georgia Island Germany, 68e Greenland. See Old Greenland Guacho (Quebrado del Guacho.?) [Chile], 36e Gualgayoc (Hualgayoc), 166e Guantajaya. See Huantajaia Guanaxuato, 170e-171e, 175e Guasco [Chile], 71 Guatemala, 166e Guayaquil, 177e Guyana. See Demerara Hambre, Puerto del. See Famine, Port Hawaiian Islands. See Sandwich Islands Hobart town (Hobart), 21 Hualgayoc. See Gualgayoc Huantajaia (Huantajaya, or Guantajaya), 176e Hungary, 164e, 171e Iceland, 90, 159 II Defonsos (Islas Ildefonso) [Tierra del Fuego], 94e India, 72 Indus River, 68e Iquiqui (Iquique) [Chile], 31 Ireland, 159 Ischia, 90 Isle of White (Isle of Wight), 87e Italy, 117 Itapicuru, Rio (Rio Itapecuru), 16e James Island (Santiago Island) [GaUpagos Islands], 43e Jan Meyen Island (Jan Mayen Island), 159 Java, 9, 44e, 137e Joatingua (Ponta de Juatinga) [Brazil], 16e Juan Fernandez (Juan Fernandez Islands), 80, 105e Karamania, 181 Keeling Islands, 129. See also Cocos Islands Kerguelen Land (Kerguelen Islands), 138, 140e-141e King George Sound, 56e Kongsberg, 168e Kosir (Kosseir), 148 Legrand, Bay of (obsolete) [Austraha], 12 Lima, 75, 116 Lisbon, 80 Loch Lomond, 80 London, 33e Macqueries (Macquarie Islands), 138 Madagascar, 98e Madeira, 82 Maipo, Ri'o. See Maypo River Malay Archipelago. See East Indian Archi- pelago GEOGRAPHICAL INDEX 163 Maldonado, 7e Marfil [Mexico], 171e Marion Island, 138 Marques (Marquez), 105e Marshall Islands. See Radack, Ralix Islands Maypo River (Ri'o Maipo), 20e Mauritius, 71, 118-120 Mendoza, 155, 158e Mexico, 160, 163e, 167e-168e, 171e-[172e], 176e. See also New Spain Mineral del Monte. See Real del Monte Mississippi River, 70 Mocha Island, 15e, 34e Monte Video (Montevideo), 56e, 87e, 144e Moran [abandoned mining district near Real del Monte], 171e, 175e Mount Hermoso (Monte Hernioso), 69, 113e New Biscay, 168e New Holland (Australia), Be, 15e New Madrid, 70 New Providence Island, 27 New Spain (Mexico), 164e, 169e New Zealand, 38e, 62, 102, 129 North America, 72, 142e Norway, 159, 168e Obstruction Sound (Estero Obstruccion) [Tierra del Fuego], 141e Old Greenland (Greenland), 159 Olinda, 16e Orinoco River, lOOe Pacifick Ocean (Pacific Ocean), 11, 73, 77, 81, 97e, 158e Pampas, 56e, 144e Paramillos, Sierra de los. See Uspallata range Paranagua (Paranagua), 16e Pasco, 166e Pasto, 144e Patagonia, 36e-37e, 41, 45e, 47, 49-50, 52, 62, 67e, 83, 85-86, 99e-100e, 114e Pataz, 176e Payta (Paita) [Peru], 102 Pernambuco (Recife), 33e, 93e-94e, lOOe Peru, 80, 89, 116, 156, 166e-168e, 181 Plata (Rio de la Plata), 110 Polynesian Islands (Polynesia), 145e Pompeei (Pompeii), 71 Port Desire (Puerto Deseado), 86, 99e, 1 14e, 139 Portillo line (Cordon del Portillo), 150-151 Portillo Pass (Paso del Portillo), 44e Port Louis, 17 Portugal, 82 Possession Bay, 114e Possession, Cape [Hoseason Island], 138 Potosi (Potosi), 106e, 166e Prince Edward Island, 138 Puerto Deseado. See Port Desire Peuquenes range (Cordillera de los Piu- quenes), 151 Piuquenes. See Peuquenes Point Indio (Punta Indio), 143e Priamang. (probably Priaman), 90 QuiUota, lOOe, 150 Quilmes, 143e Quito, 116, 158e, 177e Radack Islands (Ratak Chain, Marshall Islands), 101 Ralix Islands (Ralik Chain, Marshall Islands), 101 Real, Rio, 16e Real del Monte (Mineral del Monte), 175e Recife. See Pernambuco Red River Louisiana, 84 Red Sea, 51, 148 Rialeja, 60 (location.?) Rio de Janeiro, 16e, 24, 37e, 56e, 65e Rock, Cape (Capo de Sao Roque), 16e Salado (Ri'o Salado), 64 Salta, 155, 157e Salvador, See Bahia Sandwich Islands (Hawaiian Islands), 138, 181 Rio San Franciso (Rio Sao Francisco do Norte), 16e 164 SANDRA HERBERT San Julian. See St Julian San Lorenzo, 40e Santa Catarina, Ilha de. See St Catherine Santa Cruz, Rio, 107, 140e Santos, 134e Sao Roque, Capo de. See Rock, Cape Sao Sebastiao, Ilha de. See St Sebastian Sao Tiego Island. See St Jago Schemnitz (Banska Stiavnica), 171e Scotland, 159 Sergipe, Rio, 16e Shark's Bay (Shark Bay), 9 Siberia, 85 South .Africa, 32, 72-73, 85-86, 113e South America, 10, 18, 43e, S6e, 60-61, 68e-69, 71, 73, 77, 85, 125, 128, 143e, 145e, 169e (South) Georgia Island, 99e South Shetland Islands, 128, 138-139 S. Paulo, Morro (Morro de Sao Paulo), 16e Spitzbergen (Spitsbergen), 159 St Catherine (Ilha de Santa Catarina), 16e, 102 St Helena (Saint Helena), 38e-41e, 43e, 59, 62, 63, 79, 84, 94e, 107, 110, 125, 167e, 177e St Jago (Sao Tiago Island) [Cape V'erde Islands], 99e, 107 St Julian (San Julian), 62, 113e, 139 St Pauls (Saint Paul Rocks), 24 Straits of Magellan (Strait of Magellan), 87e Stromboli, 137e St Sebastian (Ilha de Sao Sebastiao) [Brazil], 16e Sumatra, 90 Sydney, 12, 15e, 32, 56e, 101, 126 Syria, 52 Tasco, 171e, 175e-176e Tasmania. See Van Diemen Land Teneriffe, 43e Tierra del Fuego, 17, 21, 88e, 99e, 140e, 148, 177e Tonga. See Friendly Islands Tres Montes, Cape, 7e, 88e Tristan d'Acunha (Tristan da Cunha Island), 138 Tucuman (Tucuman), 157e Turn, Cape [Tierra del Fuego], 7e Uspallata range (Sierra de los Paramillos), 152, 154 Valparaiso, 5e, 71, 81, 88e Van Diemen Land (Tasmania), 36e, 120 Verds, Cape de (Cape Verde), 99e Vermejo (Ri'o Bermejo), 157e Vesuvius, 63, 137e Wales, 5e-7e, 36e, 93e Washington (Canal Washington.?) [Tierra del Fuego], 36e West Indies, 124 Yeso, Valle del (Valle el Yeso) [Chile], 68e Zacatecas, 171e, 175e Zimapan (Zimapan), 164e Bulletin of the British Museum (Natural History) The Earth Generated and Anatomized by Wilham Hobbs An early eighteenth century theory of the earth Roy Porter (Editor) Historical series Vol 8 26 March 1 981 1 . i'^' The Bulletin of the British Museum {Natural History) . instituted in 1949, is issued in four scientific scries. Botany, Entomology, Geology (incorporating Mineralogy) and Zoology, and an Historical series. Papers in the Bulletin are primarily the results of research carried out on the unique and ever-growing collections ot the Museum, both by the scientific staff of the Museum and by specialists from elsewhere who make use ot the Museum's resources. Many of the papers are works of reference that will remain indispensable for years to come. Parts are published at irregular intervals as they become ready, each is complete in itself, available separately, and individually priced. Volumes contain about 300 pages and arc not necessarily completed within one calendar year. Subscriptions mav be placed for one or more series. Subscriptions vary according to the contents of the Volume and are based on a forecast list of titles. As each Volume nears completion, subscribers are informed of the cost of the next Volume and invited to renew their subscriptions. Orders and enquiries should be sent to: Publications Sales, British Museum (Natural History), Cromwell Road, London SW7 5BD, England. WorWLijr abbreviation: Bull. Br. Mus. mu. Hist. (hist. Ser. I Trustees of the British Museum (Natural History), 1981 ISSN 0068-2306 British Museum (Natural History) Historical series Cromwell Road Vol 8: 1-158 (Complete) London SW7 5BD Issued 26 M.irch lySi The Earth Generated and Anatomized by William Hobbs An early eighteenth century theory oj the earth Edited with an introduction by Roy Porter The Wellcome Institute for the History ot Medicine 183 Euston Road, London NWi 2BP Bulletin of The British Museum (Natural History) Historical series Volume 8 (Complete) London 1981 © Trustees of the British Museum (Natural Histi>rv) 19S1 ISSN 0068 - 2306 Pubhshccl by British Museum (Natural History) Cromwell Road, London SW7 sBD Bull. Br. A/»s. iml. Ilisl. (hist. Ser.) 8: r-is« (Complete) Issued 26 March iy«i Printed m (ireat Britain by Spottiswoode Ballantyne Ltd., C'olthester and London Contents liitiodiK tuin ............. i Biographical ............ 6 William Hohbs m liis local milieu ........ l6 The intellectual milieu nt Hohh'.'s ihr tarlh ^^nierntfii iiiul ,}ii,uoim:rd . . I? Resume ol the argument ot Hobbs's 77if ciir/i i;ciicrii!iil aiiJ iiii,iioiiii:cil . 19 William Hobbs's other scientific writing's . 21 William Hobbs: an assessment ........ -4 The manuscript ot The earth f;encratij jinl aiialoiiiizeil. with some notes on editorial practice ........... 29 Notes 32 The CiUlh \;iiii-ralfil ,111,1 iVhUtvnized: Text ........ 35 Notes and retcrenccs ........... 127 Figures and plates ............ 1 44 Introduction The discovery of new scientihc manuscripts is always exciting: the discovery of a new scientific author even more so. Hence the appearance in 1973 of a new early eighteenth century theory oi the Earth, Tlic iwth (;cii(ralal ami anatonu^fd, hv an unknown writer. William Hobbs, was particularly significant, tor many ot the author's discussions oi the problems of the terraqueous globe are sutticientlv skilful in themselves to merit his theory being regarded as one of the more constructive attempts ot its day to interpret the Earth. Hobbs's theory is also ot significance in that it draws deeply upon long-established traditions ot natural philosophical discourse, such as alchemy and organic theories ot Nature, to offer a conscious challenge to the fashionable mechanical philosophy and the Newtonian world-picture. Furthermore, reading between its lines tells us much about the conditions under which amateurs, across provincial England, were beginning to develop a taste for scientific inquiry at the beginning of the eighteenth century. Scholars should hence be grateful to the British Museum (Natural History) tor purchasing this important manuscript and undertaking to produce a printed version of it tor the first time. I am only too conscious of the imperfect and provisional state of much of the material m mv commentary and references. To some degree it is because Wilham Hobbs seems to have been a genuinely obscure and shadowy figure. Considerable research in a large number ot archives over the last three years has failed to turn up more than a handful of references to him (I am still not even totally sure as to the identity of the author, given that there were at least two William Hobbs — father and son — living in Weymouth at the time the treatise was written!). I have thought it better to make the text available m print at an early date, 111 order that Hobbs's treatise could actually be read by a wider audience, rather than pause for perhaps many further years in the hope of tracking down additional biographical material for a definitive edition. I hope that the appearance ot this edition m print will actually lead to the uncovering oi more information about its absorbing author, hi producing this edition I have built upon a preliminary paper which I dehvered to a conference of the Society for the Bibliography ot Natural History held in Spring. 1975, and which was published, as 'Wilham Hobbs ot Weymouth and his The earth (generated and anatomized (?I7I5)' in the journal 0/ the Society for the Bildiot^rajdiy ol Natural History 7 1976: 333-41; I have here corrected some errors in that account, dropped some hypotheses and verified others. The kindness, patience and knowledge of innumerable people have been imposed upon in the course of my work on this manuscript — far more than I can mention here. I should like especially to thank the staff of the Department of Palaeontology at the British Museum (Natural History) tor their unfailing helpfulness: Anthony P. Harvey in particular. The staffs of many libraries, record offices, museums and repositories have helped me track down materials and have answered numerous letters of inquiry. I should like particularly to mention the Dorset County Record Office, the Dorset Natural History and Archaeological Society, The Royal Society, The British Library (especially Dr C. Wright), The Custom House, Weymouth, and H.M. Customs and Excise. 6 The Fiirlli (jeniraleil JiiJ Atulomiznl Amongst the manv indivuliials who have helped mc and supplied me with information I should like to single out Miss M. Weinstock, Mr H. West and Mr V. Adams lor their knowledge of Dorset; Dr H. Torrens for his unfailing geological help; Mr Peter Croft, Librarian of King's College, Cambridge for his advice on the calligraphy ot the Manuscript; Dr S. Conway Morris and my wife. Sue Porter, tor their great help in reconstructing 1 lobbs's diagrams; Miss M. Deacon tor patiently instructing me in manv aspects ot the science of the sea; and Mr D. Hrvden, Dr W. E. Knowles Middleton. Mr S. Schaffer, Dr J. Schuster, Professor P. Gncrson. Dr K. Figlu>. Professor A. R. Hall. Mr. A. Turner, Mr G. L'E. Turner. Dr C. Webster. Dr Roger French tor helping me to hunt down references. Mr J. B. Morrell. Mr A. P. Harvev and Mr S. Schaffer kmdlv read earlier drafts of the "hitroduction' and ottered helpful criticisms. Miss Fiona Mainstone undertook some search work, and Miss Katy Heiikel admirablv transcribed and tvped the text. I must alone be responsible for the errors and gaps which still exist. I should like to thank the toUowmg tor permission to quote from materials m their possession; The British Library; The Royal Society of London; H.M. C^ustoms and Excise; Dorset Count\ Record Office; The Roval Greenwich Observatorv. Biographical Very little is known about William Hobbs. He published nothing in his lifetime, and little independent record of him seems to have survived bevond his own unpublished natural philosophical writings. To some extent his life has to be reconstructed from these writings, though they contain little direct autobiographical information. The surname Hobbs was common, and late seventeenth and earlv eighteenth century local records in Wessex and the south-western counties reveal snippets of information about manv William Hobbs's, it being impossible, at this stage, positively or negativelv to identity some ot such references with the author ot Tlw carlh f^vnerateii tu\(i lUhitomizfil. It is not clear when or where Hobbs was born. In a letter sent to the Royal Society in 1709' he claimed to have been making natural observations for more than 30 years, which must surely put the year ot his birth back before 1670, possibly considerably before then. There is no uiiequivcK ,il clue as to his upbringing, education, or vocational training. It seems very unlikely that he was universitv educated, partly because he himself draws attention to his Luk ot skill m languages,- and partly for other reasons which will become apparent. There were two excise officers with the name William Hobbs — they were father and son — working m the county of Dorset at the end of the seventeenth and the beginning ot the eighteenth century.' It seems plausible to suggest that one ot these — almost certainly the father — was the author of this treatise. An excise officer with an outdoor 'Ride', w-ho would frequently be moved about the country by the Board of Excise, would have had excellent Iiilroihiclioii 7 opportiiiutv tor gaiiimt; .1 kno\vlcdi;o ot the structure nt the countr\siJe. Furthermore, .1 Dorset excise-man would have been expected to possess th.it kind ot knowk-dije ot the tides which the author proudly displays. Both William Hobbs's, the excise men, were dismissed trom the service — m |anuarv and April 1705 respectively — tor dishonesty. One was subsequently reinstated, and posted to Devonshire. Mv next — possibly appropriate — piece ot independent biographical evidence dates trom 1 716, when the Weymouth and Melcombc Corporation Records note that a William Hobbs, 'Marriner', married one Rebecca Welst(iod, and socsn lound hiniselt 111 trouble with his inlaws;'' William Hobbs of this Borough and Towne Marriner niaketh Oath that about a weeke after Easter last past he this deponl intermarried with Rebecca Welstood ot this Borough and Towne who was then possessed of a Messuage Burgage, or dwelling house in the [illegible] of Weymouth within this Borough and Towne called and known by the name of the Compass Alehouse and haveing so intermaried this dcpon'. and his wife lived in and enjoyed the said house And this depon'. saith that yesterday in the evening Edmund Welstood of this Borough and Towne Blacksmith Robert Saxton the elder of this Borough and Towne carrier [ohn Williams of this Borough and Towne labourer and Anne Welstood of this Borough and Towne spinster ranne into the said House where this depon'. then were in possession and after calling this depon'. if he [illegible] severall names threatened to beate this depon'. if he did not go out of the said house and this deponl saith that he went out accordingly and hath continued out of possession of the said house ever since and this depon'. saise that he is afraid of going into the said house to feare of being beat out of the same haveing been threatened to be so used Jurat 10 ot July 17 16 William Hobbs Of course, it is perfectly possible that the "marriner' referred to is a third William Hobbs, who has no part ot our story. If that is not so. however, it is more likely, 1 believe, that the Hobbs who fell foul of his new inlaws was Hobbs senior rather than junior, for Hobbs junior later seems to have had a wife named Hannah (see below). The outcome of the fracas ot 1716 is unrecorded, but the bad feeling between Hobbs and the Welstood family evidently continued, for in 1722 we find in the C'orporation Records: 3 April 1722 Ann Welstood. Singlcwoman of this Town maketh Oath that On this present day Will'." Hobbs. Seaman, inhabiting m this Town came to the House of this Deponent and Endeavored to Enter it, but she haveing Lock'd the Doore he broke her Windows and Unhung the Casement and Shook her through ye Window Sev'.' times and swore he would kill her this Deponent, and then threw severall large Stones into the house at her and called her Whore & Bitch .md other Scandalous names, w'''out haveing any provocation given g T/ii' Eirr/i Gent-ralctl jiiil Aii,itomi:fd Jurat coram majore ", y^pii ,,,2 ''^'1" Wclstood W" Hobbs tcnetur in Thos Carter Marv Hobbs And then 10 (uly 1722 Marv Hobbs deposes she was assaulted by Anne Welstood [Marv Hobbs being. I beHeve, William Hobbs, /vre's, daughter by a first marriage and thus William Hobbs, ^i/i's. sister. | At about the same time there is a further record m the Wevmouth Corporation Records of a William Hobbs being employed as a school-teacher.* It seems plausible to suggest that this is not the same querulous Hobbs who had been described as a mariner and seaman. In tact, we can be pretty sure that this Hobbs is the William Hobbs who left a will m I74.!. and who was the brother of Mary Hobbs and the husband of Hannah Hobbs: This is the last Will and Testament of me William Hobbs late of Weymouth and Melcomb Regis in the Countv of Dorset Scho(ilmaster, and now of Osmington, made and published the fifth day of July in the year of our Lord one thousand and seaven hundred ftorty and three And first 1 do make and ordain my Daughter Ann Hobbs sole Executrix of this my last Will and Testament, and mv will is that she shall and do pav unto my Sister Mary the wife ot Nicholas tlar ot Chatham two Guineas and a half In consideration of her kindness to me when I was last there, All the rest residue and remainder of my Goods & Chatties Rights Creditts Sum and Sums of Money due and owing unto me on any Account howsoever any personal Estate whatsoever 1 do give devise and Bequeath unto my said daughter Ann Hobbs in trust nevertheless and to the Intent and Purpose that she shall and do joyntly imploy the same with her Mother, my wife Hannah Hobbs, in the best and most frugal Manner they can for their joynt Support and Maintainance during all such Time she shall and do continue my widow and no longer. But in case my said daughter shall and do happen to decease before my said wife that then I will and hereby give and devise all my said Goods and Chatties and personal Estate, so bequested in manner aforesaid, onto inv said Wife. Hannah 1 lobbs. In Witness whereof hitioihiclioit I the s.iid William Hdbhs have hereunto set my hand and Seal the dav and vcar above written. Signed sealed published and declared by the said Testator William Hobbs as and for his last Will and Testament in the presence of us who as witnesses hereunto have subscribed our Names in the presence and at the request of the said Testator John Fooks Joan Watts Edward Fooks Wm Hobbs Hannah Hobbs Executrix m trust was sworn the 19th day of August before me, J. Preston — as also that the effects of the deceased did not amount to Twenty Pounds — '' The late date of the death of this Hobbs — 1743 — probably indicates that it was the son and not the father. Further evidence is provided bv the signature attached to the will, which is markedly different from the signatures on the letters to the Royal Society in 1709. Hence, tempting as it is to believe that the Hobbs who was the author of The earik gencmtctl would have made a suitable schoolmaster for Weymouth, and with his obvious familiarity with navigation, geometry and mathematics, it seems far more probable that it was his son who became Weymouth's schoolmaster, whereas the author perhaps made his living as a mariner, and then (presumably) as an inn-keeper. It would not be unusual, one imagines, for an ex-excise officer to marry an inn-keeper's widow. So far as the evidence allows us to ludge, Hobbs seems to have lived a life of almost continuous isolation from the learned and philosophical communities of his day. Apart from the brief contact with the Roval Society and a fleeting correspondence with Flamsteed at the Board of Longitude, he appears to have kept at a distance from London societies and scientists. I have found no evidence that he had .any contact with any of the other virtuosi, country gentlemen, parsons, etc., who lived in Wessex and the south western counties and who pursued similar interests — men such as William Cole (d. 1701), [ohn Strachey (1671-1743), John Aubrey (1626-1697), Joseph Glanvill (1636-16S0) or )ohn Beaumont (d. 1731). Similarly, beyond the treatise, and the shorter papers to the Royal Society on much the same subjects, Hobbs does not seem to have left record of pursuing any other intellectual interests. Our first reference to Hobbs's scientific interests comes from two surviving letters of 1709 to the Royal Society, in which he gives his address as 'near the Bear hin, Weymouth'. It would seem as if Hobbs submitted in person to the premises of the Society at Christmas 170S a lengthy paper (now preserved by the Royal Society) with sections on the theory of motion, the tides, trade winds, etc., together with an .accompanying letter, which he had apparently hoped to be allowed to read to a meeting of the Society. The letter' runs Hono:''' S'' The Ejrth C2i'ticraliil aihl Analiimi^ed Read 1 1 May 1 709 Before we proceed ti5 mv Intentions its my indispcnsiblc duty to make an humhk- Acknowledgemt as well of my unworthyness to appear before, as of my unhttness to spake in the presence of soe Hon'''' soe Wise and soc Learned a Society; But that mv Presumption may not be esteemed inexxusable, nor what I have to propose seem altogether needless, I begg leave to give your Hono; the Reasons that induced me hereunto. In order to which be pleased to know that for above 30 years I frequented my thought as well in Mathematical! knowledge As in Mechanicall Curiosities; But observing of Late such Vast improvements made in the former [here ends the first page, at foot of which is written 'ordered to be registered] I became less thoughttul thereof, and diverted my Contemplations to the search of natural Causes, whereupon those Books that came to my hands relating thereunto. I read with great delight, and as greatly Admired the Learning and Wisdome of the Authors; But having compared their Doctrine and Hypotheses with each other, And those again with the things that Appeared, I found Contradictions therein. That I could not obtain the least Satisfaction in what 1 sought after; And therefore 1 justly concluded. That the Truths (.){ Nature were not as yet fully discovered. And this I the rather supposed, because the verry Persons who wntt such Admirable things m Mathematical! Sciences, And therein Exactly agreed with each other, were the same that soe much differed in their Apprehensions concerning the things of Nature; From which Considerations I presumed to lav aside as well what the other had proposed, and to try if I could hit on any other foundation that might better Answer the Ends designed: hi order whereunto I took a compendious View of the process of Nature in general!. Wherein I found (as Yo' Hono; well knows) That v' First Created Bring of which the Univ" was made was Matter onlv. 2' That this matter was bv the Maker thereof Imprincipled with a Plastuk power or faculty, to Forme it selfe into Naturall Bodys of Diverse Kindes and Species. 3'' That this Formation could not be Effected without a general! Motion in all its parts. For it Matter, or any part thereof, had been always devoid of Motion, it had perpetually remained such. And Consequently, noe natural! Body could have been formed Wherefore all naturall Bodvs are Educed out of Matter bv Motion. 4'^ That altho' this Motion or plastic Facultv is originallv promiscuously mingled with, and imprincipled in Matter as aforesaid; Yet the Matter of all such Bodves (how promiscuously soever originally mingled) is nevertheless in its Forming, Tnpartlv Divided, or Discriminated; Namely into Active, Passive and Fixed parts. 5'' That the Active part (when formed) gives Motion to the passive part thereof And the Fixed Contains, Setts bounds unto, and regulates the s' Motion, and also constitutes or modifies the Body soe produced. 6'' That this Active part being thus Divided or Discriminated, is allways internally disposed of, or inclosed within the Body soe produced as afores''. And not on its Superficies, or at a greater distance from it. From these and other like self-evident Truths I grounded, or discovered my Hypothesis, By which 1 soon found That the Motion of the Fluid or passive part of the Earth, was not Itllli'dllllioil I I Caused hv the Motion, or pretended InHuence ot if- Satellite, but in such manner as in the tollowing Lines is Assit;ned. Nay it soe well Agreed with the I'henomena's ot Nature, That it I saw but a Stone in the Street, (having any naturall Vain or Impression m it,) I could discover when, and how, it was produced or Impressed therein. Being by the same Doctrine also taught. That as there is a mutuall Harmony in the Powers, Proportions, & At^ections, of Lines and Numbers in Mathematical! Knowledge, soe there is likewise as regular and mutuall an Agreement in the Powers Proportions and Affections, in the things ot Nature; Which when tullv discovered, and a true and Cienuine Foundation Laid, I doubt not, nay am well assured. That the Doctrines, Corollaries and Consequences, Drawne from them will (from the Same naturall products and Phenomena's) be as evidently proved and demonstrated, and Errors as readily Detected, as by any ot the Problems and Propositions in the Mathematicall Sciences whatsoever. And Consequently there will be as great concord and agreement amongst those that shall Treat thereof, as is now amongst those that treat ot the tormer: For it such Regularity and pertection can be fnind in Art, which had its Originall Irom Humane Inventions and Institutions. How much more in Nature, whose Ordinances were Established, and whose footsteps were Imprinted, Long before those Learned Inventions, or humane Arts had their Being; And whose Laws are immutably the same, as having the Externall Existence for their Author: But it it has hitherto been otherwise, it's for want of a right Foundation And not from any deficiency in the Demonstrations that may be drawn from the Appearances or Evidences aforesaid. Now bv what hath been already delivered I have plainly intimated That the various opinions ot those that treated of naturall causes, was what induced me to lav my Conceptions before yo' Hono; in hopes at least that Something therein may tend to the Discovery of Such a true and Genuine Foundation as may produce such an Harmony amongst those that shall build thereon as is before proposed. I would add a Word or two in particular concerning the tollowing Lines, In which I have briefly treated of, And Assigned the Causes of the Various Motions in the Elements of Air & Water, i.e. of the Trade Winds, Monsoons And of the Flux, ami Reflux of the Ocean. In accounting tor which (as has been already intimated) I have made some Angles with what severall ot the Learned and Ingenuous [sic] of this Age have proposed. And altho' 1 am well Assured ot the Truth and Certainty ot what is therein Contained, Yet am never- theless Soe unwilling to Give the least offence to those Worthy persons that have soe ingenuously (sic| treated of the same things Or to offer any thing to this Hon'''' Society that may be judged needless of which they are tullv Assured, the reall Causes are alreadv Discovered: That I had rather Conceale what I have prepared and presume noe farther, than by a superfluous proceedure to be CJuilty ot offending in manner aforesaid. But on the other hand if your Hono" Thinke that any of the Phenomena's m the Motions of either ot the said Elements, or in the Fixed part ot the Earth, are not as \'et sufficiently accounted for, and shall please to Admitt of my Endeavours, I shall freely Otter to your Consideration what I have prepared. And tho' I am not accomplished with such Learning and capacity as may be necessary for its Verball Justification, Yet inasmuch as they are not Founded on Speculative Notions, nor Drawn from remote powers and InHuences: The Earth Generated and Anate'inized But from the Visible and Tangablc Appearances of Nature and Evidenced and Illustrated m such Manner as this Royall Society Expects and Requires. I mean bv Experimental Examples and Observations; I Assure myselfe they'll not only obteyn vo' Hono." Approbation. But will be improved to a far Greater perfection by the Addition of more profound Discoveries, Than by mean Capacity can pretend unto. Which that it may is the hearty Desire of yo' Hono" most humble Serv' W" Hobbs Hobbs's letter is followed by his paper. 'An essay concerning Motion', which was read to the Society at its meeting oi nth May 1709. The Royal Society's Journal Book runs* Papers of M' Hobbs from Weymouth were Delivered by the President they related to the Structure of Mountains. Motions of Tides &c M' Hunt was Ordered to take Care of the Modells and Stones and the Papers were Ordered to be Copied into the Books of the Society and he was Ordered to be thanked. Presumably about this time Hobbs was sent the letter oi thanks (of which no trace seems to remain) to which Hobbs refers in a later letter. On 25th May William Derham (1657-1735) gave the Society an account of the paper Hobbs had sent. This paper survives in original and in copy in the Royal Society, but it is hardly worth transcribing in full here since it duplicates almost totally the ideas set forth in The earth generated and anatomized (though see later, p. 19 for an analysis of these ideas). Rather it is convenient to give Derham's account of it, since it is a reasonably accurate resume, and embodies the judgment — prejudiced obviously, but not unintelligcntly — o( the Society. Derham's report is headed 'An Account of the Papers Models and Figures which the Society Received from Mr Hobbs ot Wevmouth in Dorsetshire by the Reverend Mr Derham F.R.S.'" In pursuance of the Orders of this Most Famous Society I have with as much Care in my Opinion as they Deserve read over Mr Hobbs's Papers, in which 1 find him to have a Clear Head, and to be a Person of great Diligence and prettv good Judgment considering his Want ot Learning. But his Philosophy is much inferior to his Observations of Matters of Fact, And therefore altho' I don't think him to be Numbered among the Eminent Philosophers and may have a meaner Opmion of his jjpr,xa; than w'hat he seems to have himself, yet I imagine he may be of good use to the Society, if they should have any Queries to be Answered or Notices to be taken in the Place where he lives. Particularly I think his Observations of the Tydes may well Deserve the Cognisance of the Society, he havmg Observed them strictly for two years, and no doubt will if desired proceed with Delight in farther Observing them if it be thought necessary. As to the particulars of his Papers a short account may Suffice Except where his Models and Figures may call for Some Enlargement. The Causes he assigns tor Rain have nothing new or Remarkable except what is D' Woodward's Centrall heat. The same for Winds. The generall Trade Winds he ascribes to the Diurnal motion ot the Earth and heat of the Sun. He is of opinion that the Whirling about of the Terraqueous Introduction 1 3 Globe causes a Wake or Ditch 111 the Air between the Tropicks Hke that behind a Ship under Sail in the Waters, That the Hills and Highlands for the Divagations of the Trade-Winds near the African and the other Shores bordering on the Ocean. For the Illustration of this he recommends to draw a piece of Wood thro' the Water, behind which you will not only see the Wake but you may observe also that |ust behind it the Water runs almost across it. So he says the Highlands next the Ocean whirling thro' the Air, the Wake in the Air next them is not (as 'tis at greater distance) Easterlv & Westerly but toward the Northern & Southern points. And tor the Monsoons he accounteth for them in this manner. He sayeth it instead of One vou take two pieces of Wood, and brace them to stand at a distance from each other with a Wire bent so as to stand above them out of the Water, that there will be a Wake behind the hindermost but none between the two pieces of Wood, after the same Manner he imagineth it is where the Winds blow one half of the Year One Way, the other halt the Contrary way (viz.') that the Wake in the Air between two Lands lying near One Another is taken off, as between Madagascar and Africa, between the Malacca, Sumatra, &:c, which he thinks near enough even to Africa itself to cause this Quietness or Calm of the Wake ot the Air. The force of the Trade Winds being thus taken off, he thinks then that the heat ot the Sun takes place, and as he is either towards the N or S. Tropick, so he saith he drives the Vapours before him toward that Pole he is nearest unto, and then the Trade Wind Vapours come tumbling in thereupon, and make either an Easterly or Westerly Monsoon. His Experiment and Notion I confess seemed to me Ingenious, and altho' I scarce think that the R(nation ot the Earth has much to do in the Trade Winds, yet it his Notion be refined and considered upon it may be so far Serviceable as to give some good hints to Ingenious Persons about the Difficult Phenomena ot the Monsoons, for which reason I have Enlarged on that head. The last thing he Treats of, and thinks he has fully resolved, are the Tides, which he thinks can never be owing to the Influence ot the Moon, or any Cslestiall Body, he knows nothing ot the business ot the gravitation ot the planets to one another, and makes all Influence to be no other than the heat of Such Heavenly Body, and that the heat of the Moon or any Heavenly Body but the Sun cannot reach the Earth he endeavoureth to prove from the proportions & Distances which he gives of the Earth & Heavenly Bodies in his 3. Scheme, In which Scheme he makes the Atmosphere and the heat of the Sun to be the Same, or at least that his Atmosphere Extends as far as his heat, as is represented in that Scheme by the Yellow Circular Shade about the Sun. and that the Moon hath no Concern in Agitating the Waters he thinks he has Demonstrated from this. r.' That no Influences can be conveyed from the Moon to the Earth but by some Medium or Atmosphere, and consequently the Atmosphere ot those two Globes not Approaching each other as also they being both Earthy and Cold Bodies no Influence can be conveyed from one to the other. 2. That the Motion of the Tides doth not Correspond with the Culminations of the Moon, which he supposes to be every Revolution only about 4X' different according to which Supposition he has drawn up his Table on the backside ot Fig; i. Whereas he findeth the daily Variation ot Tydes to be at greatest Spring Tides but about 29' & at the lowest Nepes 96' and he Savtli he hath tor two Years Observed the Variations ot the Tydes 14 The Earth Generalcd twJ Aikiloiiiist'd in the Sea near the place where he Hves, and he had very higeniouslv and handsomely Contrived, and put them into Fig r.' and 2'.' Having thus as he thinks discarded the Moon trom having to do in the Tydes he assignes what he takes to be the true Cause, and that is a kind of Respiration within the Earth owing to some Rarefactions therein, which he proves have been, and thinks therefore alwavs are & will be in it as being as necessary tor its Conservation as Ainmal Lite and Motion is to the Conservation ot Annnall Bodies. That Such Rarefactions have been in the Earth he proves thus, with I)' Woodward he supposes the Terraqueous Globe to have been once taken to pieces, as the fossile Shells .S:c import, but he denies this to have been at the Deluge, when this Mish:Mash had subsided into Various Strata according to the Rules of gravity and become hard, he thinks the Hills were then raised or pushed out by means ot some Internall Raretactions, These Strata & the manner ot their being pushed out he hath handsomely (it I mistake not) represented in his Miidels (NV) I. 2, & 3, which I took but a Transcient View ot at the Society, Having thus proved an Elevation in the Terraqueous Globe by means of Rarefaction he takes it for granted that it as necessarily Continues as breathing doth in an Animal, and that this happens at certain times near the Nepe Tides (like a sort ot Respiration) and that one Agitation at Nepe Tides is Sutt~icient tor all the tollowing Agitations of the Waters which are only so many Returns ot that Elevation ot the Ocean. To illustrate the matter he Instanseth in a long Wooden Tube or Trough with Water put therem which being litted up at One End will Cast the Water to the Other, and being let down again the Water will return and Ebb and Flow backward & forward at first more & bv Degrees less, and the proportion it doth thus in the Tides he hath represented at the Bottom ot Fig: 2') &: in a Small paper by itselt in a straight line. Another Illustration he gives us is by a large piece ot Level ground ot half an Acre or an Acre with a large Map of the Sea and Land drawn thereon the Seas to be represented hollow lower ground the Dry Land bv rising up higher. An hollow deep pit being sunk in the Middle &' covered with Leather &' Water poured on the Leather if the Leather be lifted up in the Middle, 'twill Cast the Water out among the Seas and against the Dry Land and make such like Variations he thinks in the Ebbings S: Flowing in this Map ot the World as betalls in the Terraqueous Globe itselt. And lastly to further prove this Respiration ot the Terraqueous (Jlobe or to put it in his own Words; "That there may be a Musculous part tormed under the Ocean, where it may operate by its own principle or be agitated bv some Internall Cause, or Raretaction', As his IVonis arc p. _?.' — I say to make good this he Instanceth in the Dilation and Contraction ot the heart of an Eel for some time after 'tis cut out d^' but especially in the Elevation and Subsiding Motion observable in the Bell Fish which he hath sent a pattern of to the Society. As to his Notions about the Motion ot the Heart ot Animals. ^. many other things, which I have passed bv, I thought them not worth the Cognisance ot the Society neither indeed should I have said so much ot most ot these as I have done but only to acquaint the Society with the Design & Meaning of his Models and Figures which are pretty enough to recommend them to the Desires of the Curious to be satisfied about them. Iitnoihiitioii I s But reviewing Ills Papers there is Cue nt his Fii^iires I find I had Hke to have passed over, and that in his handsome Draught ot the Isle ot Portland, and his Remarks on it's Tvdes. i":' He Observes when the Tydes in the West Bay set Eastward that in the long Lake or Lagune (Setting in at the Narrow Passage B) they set to the Westward, and that 'tis full Sea at C, three hours later than at D tho only a Furlong distant. 2;' that in the Bay A, the Water ebbs & flows main' times .m hour or two before the proper Flood, which preliminary Tide they call the Clourder, this he applies to what is reported of the Tvdes near Negropont. 3'' That at B, the Water oftentimes runs in briskly thro' the Inlet altho' it be Ebbing Water and Sunk a Foot or more in other places, all which things I think are easily Accounted for by an intent Inspection and Consideration ot his Scheme. Derhani s account of Hohbs s papers drew some discussion. 'Doctor Woodward said that his Observations on the Strata of the Earth were Conformable to his Theory, and that he had given M' Flamsteed his Observations on the Tides which differed from these given to the Society. Mr Derham was desired to compare Doctor Woodward's or M' Flamsteed's Observations on the Tvdes Delivered from M' Hobbs with those Delivered bv him to the Society.' '" This then led to a further exchange at the meeting ot 13th |ulv when 'Dr Derham Delivered the Papers ot M' Hobbs Concerning the Tides and Earth, which were Ordered to be putt into the Pepositorv after being Copied m the Books and returned from M' Halley who w.is desired to peruse them and give his thoughts of them to the Society.' ' ' Halley apparently never did so, and no further mention is made of Hobbs m the records ot the Society. Hobbs meanwhile was clearly becoming anxious as to the verdict ot the Society on his works, having h.id but .i bare acknowdedgement ot receipt. Hence he wrote a tew days later. '' near y' Bear \nn m Weymouth July 16; 1709 S" I rec: yo' obliging Letter wherein you were pleased to give me An Account That the Papers &c; which I left with the Hon'''' Sir Isaac Newton at Christmas last were by the Hon'''" Society ordered to be Registered: for which I retourn my humble thanks. I should have been glad of a Line whether any part was approved or it not wherein Rejected. I will assure your Honours that 'twas neither Profit, applause nor emulation that enganged me thereunto But the irreconcilableness of what I saw in naturall things, to what I Read in those that ha\e written thereof And though my Pen be not sufficient to establish what I therein attempted yet perhaps Posterity may be by some Learned Author convinced that the Rocks were not Dissolved and the Shells immassed therein at the Deluge 2: ' That the Moon IS not the Cause of the Flowing of the ocean, and 3:'' That the Diurnall Rotation of the Earth is the principall Cause of the Trade-Windes, Monsoons, &:c Pardon me S" for this Freedom tho' you should be one ot those that approves of what has bee |sic] by some Hono. ' and Learned Authors written to maintain the Contrary. S" I have seen soe many Thousand Tonus of Stone soe plentifully immassed with Shells, And made such observations ot the generall Scituation ot the Stratus or (r.ither) Bedds of Earth And kept i6 The Earth Generated and Anatomized soe long Account of the Flowing ot the Ocean where noe river hindered That the above particulcrs are as plainly deducable from these observations at that the Sun is the fountain of Light &c: (or otherwise I should not have soe presumed.) And this I purposed to have evidenced by Experim" before yo' Hono'- but was unhappylv prevented bv vour not meeting in the Hollidavs. I have herewith sent you 2 or 3 minnerall Impressions ot which I have not seen any till lately. 1 have others in store and if Acceptible shall freely present them — Please to Hono' me with a Line of the Receipt and if not too much trouble one line to the first above mentioned in which vou will oblige. Hono"* S" Yo' most humble Servt W" Hobbs I took the opportunity of a neighbour to carry it gratis There Hobbs's contact with the Royal Socierv seems to end. There is no evidence that when his ideas were read out to the Society, they created any interest. Nor is there much sign that Hobbs thereafter tried to make further contact with the London intelligentsia during the rest of his life. The next record of Hobbs is his treatise itself. The earth generated and cvuitoinized. Of this, the preface 'To the Reader' is dated 171 s (though this date has almost been scratched out). It is very difficult to date the original composition of the treatise. Its Postscript leads one to believe that far the larger part of the treatise was conceived and in some form written several years before the Postscript. It is possible that Hobbs's failure to interest the Royal Society in his papers led him to decide to reorganize his materials into a lengthier, more coherent, independent, treatise. There is no clear indication whether Hobbs had any intention or ambition to publish the treatise, though it is written as if addressed to an audience (rather than being a series oi self-addressed notes). The treatise was composed in Weymouth. Hobbs had clearly been domiciled in Weymouth in the early years of the eighteenth century, since the treatise contains a register of the tides at Weymouth kept by him then over a period of three years, which may well indicate an ambition to compose a theory of the tides and of the Earth over a decade before he contacted the Royal Society. William Hobbs in his local milieu William Hobbs lived at a time before provincial England generated on any regular basis scientific communities and scientific societies. The period saw o{ course many provincial naturalists, but they were essentially stii generis.'^ None of the other naturalists operating at this time in the south western counties of England — men like John Strachey at Chew Magna, and William Cole at Bristol — lived sufficiently near for Hobbs to be part of their circle. Dorset in Hobbs's day does not seem to have supported any kinds of gatherings amongst men with scientific interest.''' Weymouth itself, being at the very southern tip of Dorset, was particularly isolated. It was over a hundred miles from Oxford and further from London. Having suffered under siege huroihiction 17 during the C-ivil War, Wcvniouth was a sriiall, and probablv decaying, sea-port at the turn ot the eighteenth century. Its growth industry was smuggHng, mainlv from France via the Channel Isles. Weymouth did not even possess an endowed grammar school. It is hardly mentioned in the various books of travels which were produced early in the century.''' Weymouth's rise to some degree of importance as a town dates from the second halt of the century, when it became popular as a seaside resort as a result ot George III having chosen to use the town tor sea-bathing. It Hobbs received little human stimulus, however, from his Dorset milieu, he. like many a later geologist, must surely have been deeply stimulated by the opportunities offered — indeed the scenes thrust upon him — by the local natural scenery. Dorset contains a fine succession of strata from the Chalk of the Cretaceous down to the Lias of the Jurassic, particularly well exposed by the extensive cliff scenery around Lyme Regis on the coast. The Portland stone quarries doubtless helped to convince Hobbs not merely of the depth to which tossils were embedded in solid rock, but also of the fact that the Portland stone was largely composed of organic remains. The hills and cliff scenery of the county convinced Hobbs ot the tilting ot the strata in upland areas. Chesil Beach must have focused Hobbs's attention on the interface ot sea and land, on accumulation of materials and denudation as a crucial process of Earth history. Hobbs was the tirst ot a long line ot geologists whose work was deeply inspired by the relief and structures of the county, and — later — by the extraordinary fossils to be found m the vicinity of Lyme Regis. Indeed, Osmond Fisher, who wrote extensively on Dorset geology, was born at Osmington, which is where Hobbs — probably f\\s — died.'" The intellectual milieu of Hobbs's The earth generated and anatomized 1 shall not attempt here a detailed account of the state of the science — or sciences — ot the Earth in Hobbs's time. Detailed references and bibliography on particular areas of this subject will be found in the notes appended to the main text. Rather, I should like to bring into tocus certain aspects ot the ambience ot contemporary science, particularly as it impinged upon a scientific amateur such as Hobbs. William Hobbs lived in a world m which the modern divisions of Nature and scientific inquiry into physics, astronomy, chemistry, biology, geology, etc., did not exist as such. Hobbs thus characteristically had no generic or specific terms for his science. He saw no conceptual oddity in writing — nor would any of his contemporaries have had ditficultv in reading and assimilating — a tract which related together extensive local observations ot the Earth with a geocosmic philosophy; which attempted to understand the structure of the Earth's crust in terms ot celestial philosophw and m context ot a total philosophy of Nature. He saw the terrestial world as analogous to the animate, and indeed believed that all Nature was governed by laws ot animation, organization and generation. In this respect, Hobb's work does not represent an antiquated rag-bag ot quaint juxtapositions. Such a con|oint range of interests are the common ones ot the age, and are utterly typical, for example, ot the work ot Hallev. Indeed Hobbs had a good grasp of the main contemporary problems within the philosophy of the geocosni. Amongst the chief debates to which he addressed himself were; I s The Earth GeneratcJ and Anatomized (a) The debate over the theory of the Earth, which had been joined in Britain in the works. above all, of Hooke (163S-17OJ). Burnet (1635-1715), Woodward (1665-1728), Whiston (1667-1752). Warren, Croft, Arbuthnot (1667-1735) and many others. The chief issues were whether the Earth had been created, or was eternal: how it had come to assume its present shape — its landtorms, the divisions of land and sea, mountains and valleys; the questions of its age and its likely future. Furthermore there were problems of a more specific and technical kind, such as the nature and history of rivers and fossils, the origin of soil, and the questum oi an inner heat tor the Earth. On most of these issues, Hobbs felt obliged to argue for a particular case, and to dismiss others. On some of them, however, e.g., the questions of the origin and nature of fossils, Hobbs clearly h.ad no doubts, and did not feel anv need to spell out the criteria tor choosing between different interpretations. (/)) The debate over the theorv of the tides. This was not vet tullv solved bv the end of the seventeenth century. Hobbs was not out of date in still puzzling over the issue. The major seventeenth century theories had been those of Galileo (1564- 1642), who attributed tides to the Earth's rotation; Rene Descartes (i 596-1650), who saw them as a product of pressure set up by vortex action; and various theories specificallv of lunar attraction. Some of these latter (as for e.vample Childrev's (1623— 1670)) were somewhat astrological, or magnetic; some, as Wallis's. were mainly concerned to establish the empirical regularities between the moon's phases and the tides; and some, as Newton's, emphasized the agency of gravitation. This clearlv involved much larger natural philosophical issues with which Hobbs grappled, such as the problem of ether, and void space; and ot the differential communicabilitv of light, heat, fire, and power I'iii media through the solar svstem. As with most of his contemporaries, and especiallv the contemporarv 'common scientist', Hobbs held a melange of views. Some ot these could be called 'modern', and were destined to have a future. Hobbs was, tor example, a 'modern' in his extensive commitment to factual observation, experiment and to the quantification of the tides. He was strongly hostile to 'verbal' science, and to mere book learning; he tiercelv repudiated astrology and other supposed arts (taking a 'continental' view, as it were, in rejecting Newtonian gravitational attraction as "astrological). On the other hand, in the great seventeenth century debate on the order and composition of Nature, Hobbs's philosophy was obsolescent. The Renaissance had seen a great recrudescence of philosophies of active Nature; of alchemical and chemical philosophies; of the belief that Nature was living and organized. Such ideas were being thoroughlv displaced in the second half of the seventeenth century both by the more orthodox forms of Cartesian mechanical philosophy, which emphasized th.it Nature was only matter in motion; and bv the more complex Newtonian philosophv. which retained a far greater role for God's sustaining activity in Nature and for Providence, withm a general philosophy of atomism and the downgrading o( matter itself before law-governed forces, hi this climate, Hobbs held to a philosophy which saw all Nature as alive; a philosophy with some affinities to that of the C'ambridge I'latonists, but one which owed far more to an alchemical vision of the potentialities ot Matter for sell-organization ,aiid generation. Hobbs had no concern tor the providential dimensions of natural law; he had no interest in the ontological and epistemological problems of primary and secondary qualities, hi a world incre.isingK of Newtonian forces and Lockean powers, Hobbs's philosophv was left behind. Iiitroihictit^ii 1 9 Resume of the argument of Hobbs's The earth generated and anatomized On tliL- thiitv-tirst page ot his MS (p. >y ut this cditmn) llnhhs states with tiill clarit\ the scientific prohlem which it was the aim (it his treatise tn solve. 'Our principal design', he writes, is 'only to tmdc out ve manner how, and when, the Shells, and other Marine productions, came to be immasssed and mingled m the Rocks and Mountains' of the Earth. For, as Hobbs endeavours to show from the beginning ot his work, there are certain natural phenomena, easily visible to the observer, whose verv existence and situation are puzzling, and which need to be explained. These are the tact that drv land exists, above sea level; that this terrestrial matter is composed ot rock which is predommantlv tound stratified: that these strata generallv run parallel to each other and to the horizon, though, where the relict is undulating, the line ot the strata is generally parallel to the dip ot the land. Furthermore. Hobbs takes it to be a puzzle that this solid rock contains the remains oi shell-creatures and ot tish and other marine bodies embedded withm it — and embedded deeplv, not merelv superticiallv; though scarcely any remains ot land-dwelling creatures are tound similarlv immassed in the rock. How this came to be so Hobbs takes as the problem ot his work. Furthermore, he states that, this being a work ot luttuntl philosophv, these problems must be solved luniiriilly. Hobbs tirst establishes that the present land contains marine materials. It is tor him inconceivable and unnatural to suppose that the sea could somehow have become raised up all over the land, and therebv have deposited such materials (above all, fossils). Hence, it is evident that the present continents must once have formed the seabed. It is also clear that the silts, muds, clays and other materials which now constitute rocks must have been plastic, tlexible, and soft while on the seabed; otherwise shells and other organic remains could not have been introduced into them — tor it is evident that such organic remains were introduced while on the seabed. (Hobbs ofters a variety of arguments, when tying up loose ends towards the end of his treatise, to demonstrate that there is no way in Nature whereby the Noachian Deluge could have mtiltrated organic remains into solid rock.) Hence, Hobbs notes, the problem is to discover the mechanism wherehv seabed became land surtace. This process, he avers, must have taken place in two separate stages, as the visible evidence proves. Firstly, dry land must have appeared while its solid materials were still flexible, thus explaining the generally horizontal lie ot the strata. But hills and mountains can only have been raised above the general level ot the land alter the continents had hardened: tor they show evidence ot fracture, and fluid land materials would not have held their place. In short, strata are not the product ot a Deluge, or ot precipitation, but ot cli-i'ation: elevation in two stages. The natural philosophical viewpoint trom which to understand this process ot the elevation ot strata is through a general philosophv ot Generation. The generation ot the Earth is merely one example ot generation at work throughout Nature; and one instance of the animated character ot all bodies. Hobbs sets out a number ot Postulates which explain his philosophy ot generation. All bodies are presupposed to move trom an original condition ot chaos and unditterentiation, into a state ot being organized, ditterentiated, animated, and vital within a svstem. All animated bodies need, and have, Lite, Heat and Motion. But thev also 20 The Eartli Geiieratal ami Aiun^'nuzed need as well as these Active Parts. Fixed Parts and Passive Parts. In the case of the Earth these arc, respectively, its Heart, its Land Masses, and its Waters. Thus to solve the problem ot the strata and of fossils we must understand the process of the generation ot the Earth. The Earth began from a chaotic condition. Ciradually differentiation of its original materials took place, as in the development of different parts of the substance of an egg and finally the chick. First to develop were an internal pulsating facultv, or heart: and watery fluids which covered the surface. The pulsation ot the Earth's heart agitated the waters and gave rise to tides (tides therebv being empirical evidence of the existence of an internal heart to the Earth). Hobbs here interposes two notes of warning. Firstly, though the Earth is thus generated, organized and animated, its organic parts cannot be read off mechanically by a macro- cosm/microcosm comparison with other animals. The Earth is a verv special animated whole with its own unique organic functions. Secondlv, Hobbs seeks at considerable length to demonstrate the falseness of all other theories of the origin and cause ot the tides — the notion that the rotation of the Earth, or the influence of the Moon (whether magnetical, astrological or atmospheric-gravitational) produces the tides. All such theories of lunar influence are empirically false (i.e. . they do not square with the periods of the tides). They arc also physically erroneous. Lastly, they are ontologicallv absurd, for the tides must be organically and necessarily related to the economy of the Earth, not an accident of a mere satellite. Indeed, the rotation of the Moon is itself a product of the rotation of the Earth which is a product of the action of the tides, which is in turn a manifestation of the animated pulse of the Earth. The pulse of the tides was (and still is) from the Poles towards the Equator. Gradually, as the tides drove water across the pristine Earth, some areas of higher, and some of lower, seabed formed, with stratum super slraltim of loose sedimentary material being heaped up in horizontal layers. Gradually, some of these strata appeared above the level of the lowest neap tides; and then eventually above the level of the highest spring tides. Thus land appeared. This land gradually hardened as a result of the action of the internal heat of the Earth. As irregular continents of dry land formed, the tides begin to fall into disequilibrium, causing the Earth tor the first time to begin to rotate on its axis. Thus tmie, as man knows it, began. In stagnant pools which abounded on the nearly flat surfaces of the land, terrestrial creatures spontaneously generated (thus explaining why no land creatures are to be found deeply embedded within the rocks). In due course, the internal heat of the Earth raised up some parts of the land into hills and mountains, causing disturbance of the strata. The humid, fertile condition ot the Earth, favourable to spontaneous generation, now gave way to a brisk circulation of waters on the land surface, with the development of systems of rivers, fed by rain. The spontaneous generation of large creatures ended — now, only minute bugs generate in that manner. Thus, the Earth is completely generated, and in a state of perfect preservation. Hence, concludes Hobbs, by adopting a philosophy of generation, we can understand the main puzzling terrestrial phenomena, I'iz: (a) that land surfaces are the product of tidal action; (/)) that tides created the rotation of the Earth; (f) that hills and mountains were raised up by the internal heat of the earth; ((/) that the internal heat of the earth, together with the fertility of the original chaotic materials, brought forth and continue to sustain life; Introduction 21 (i-) that iiiil\ inaniii' organic remains arc tound fossilized m rocks; ( /') that most rocks arc horizontally bedded; (jy) whereas in the vicinity of mountains and lulls the strata are not horizontal but rather broken and ruptured in line with the line ot the hills. We also understand through this philosophy ot generatuin that the Earth is not eternal, but rather had a beginning, and hence a Creator who is to be praised and worshipped. To this treatise Hobbs then adds a Postscript, proving trom empirical materials that the impulse ot the tides is from the two pole.s of the Earth, thus reinforcing his argument that the Earth has a heart, or pulsing faculty, situated at both these poles. William Hobbs: other scientific writings Apart from The earth fieueriitcd and anatomised, the only extended scientific paper by Hobbs known to the present editor is 'An Essay concerning Motion'. This Hobbs appended to his first letter to the Royal Society, read i ith May 1709, and it survives in the original (Royal Society MS E.\. I. ]}) and in copy (Ro\al Society Letter Book Supplement, G— H, copy, pp. 357-406). It IS the p.iper suinmarized and criticized by William Derhain on 2Sth May 1709 (see earlier). Practically all the major arguments and themes developed in the "Essay' are also present in The earth generated: a discussion ot winds, ot tides (and ot the impossibility ot the Moon being their cause), and a demonstration that the cause of the tides was an internal pulsation ot the Earth. For this reason it will not be necessary to discuss the 'Essay' at length here. The 'Essay' contains a tew examples and experiments which do not appear in The earth generated. Conversely, very little ot the lengthy discussion ot the philosophy ot generation, withm in alchemical context, which is such a prominent feature ot The earth generated, finds a place in the 'Essay'. The most important distinction, however, between the two works is their focus of organization. The 'Essay' centres on a discussion ot the various types of motion found in Nature. 77;(' earth gem-rated is expressly concerned with an explication ot the various phenomena ot the globe in terms ot its own unique history. To what extent this shift in tocus represents a real change in interests, or simply the reorganization of ideas onto a different plane ot coherence, is not clear. The 'Essay concerning Motion' begins with a threefold distinction ot Motion, into artificial, natural and accidental. It establishes that all motion is produced 'either bv Rarifaction and Condensation. Sublimation & Precipitation, Dilation and Contraction, or by Causes derived therefrom or depending thereupon'. Artificial and accidental motion are quickly dismissed as falling outside his present concerns. Natural motion is then taken and divided into [a) intriiisick (h) internal .ind (c) local. Intrinsick motion is taken to be the motion ot the Chaos 'during the time of its Incubation' before matter was divided up into three parts, active, passive and fixed. Internal motion is the motion of the parts of an organized and living body. Local motion IS the movement of bodies from place to place in the universe. Hobbs then addresses himself to the problem ot explaining various particular sorts of motions associated with the terraqueous globe. Ram is briefly dealt with first. It is shown to be a motion consequent upon the tormation ot clouds, which in turn depends upon the action of heat in sublimating the 'water\' humidity' of the atmosphere. When clouds achieve sufficient 22 77n' Hanli GeiicralcJ diiJ Aii and when the Oyster-shells, cockle-shells ami all other Marine productions were hrmight upon, and incorporated in the rocks and mountains of the Earth. Fur this, his natural philosophy of generation was to be invoked as a general tramework within which his specific mechanisms for explaining strata made sense, and his discussion ot the tides was a necessary digression. Moreover, when he came to reorganize the paper he had submitted to the Royal Society into his treatise, turther reHection clearly caused hini to decide to place the problem of the strata, and the formation of the present condition ot the Earth — problems which had been relatively unimportant in his Royal Society paper — to the forefront, as the organizing principle which was the intellectual thread running through all his work. And, turther, it was within his discussion of formation ot the Earth that Hobbs, confessedly an unlettered man, could speak from most experience and with greatest interest. Hobbs was swimmmg against the tide in his day (as the quick dismissal of this theories by the Royal Society clearly shows). He was putting forward a philosophy of an active, hving Nature at a time when Newtonianism was stressing God's activity, and the passivity of Matter itself He was offering a liberal view of the Biblical creation at a time which piety required more orthodox readings. He was seeing Nature in terms of process, through alchemical philosophies, at a time when the mechanical philosophy was replacing the chemical philosophy. It is not surprising that Hobbs's paper was virtually neglected by the Royal Society. Had The earth generated and anatomized been published it would probably have received rather less attention than, say. John Hutchinson's (1674-1737) anti-Newtonian Moses's Principia. Yet there is much in his natural phiKisophv which is an indispensable background for his observations and technical mechanisms, and much in his specific notions which back up his philosophy. Not until new natural philosophies came into vogue associated with men such as Hutton, which were not precisely like Hobbs's, but which carried many of the same burdens — the stress upon the ,rctivit\-, and organization of the Earth, upon its being transformed gradually and continuously, the demotion of Biblical literalism and of miraculous agency — could the study ot the Earth actually rediscover many of the important foci of Hobbs's interest. The manuscript of The earth generated and anatomized, with some notes on editorial practice The manuscript ot Hobbs's treatise from which I have worked appears to be the only one in existence. It has never before been printed. It was purchased by the British Museum (Natural History) from Messrs Dawson's ot Pall Mall who had advertised it tor sale in their catalogue no. 240 (1973). The history of the manuscript is obscure. Certainly the William Hobbs will of '743 (p- X), which I take to be the will of the son ot the author, makes no mention of any scientific papers. Written on the vellum cover of the manuscript are the words 'Hobbs Animadversiens' which suggest that at some stage it tell into French hands. On the first sheet of the manuscript are the words: JO 7 Vii' £irf/i Gciicrjlcil jiiJ Aihiii'tiii:ed \. H.uliv August lS2S 1 bought tills MS. in the borciugh ot Scuithw.uk. Shortly after 1 liad made the purchase, mention was made ot it. the Title quoted partially, &e. in the Times newspaper. The manuscript is a folio of seventv-hve sheets, bound in contemporary limp vellum. It measures 33 cm x 2I3 cm. The text comprises three main sections; (a) To The Reader (unpaginated) (fc) The main body of the text (paginated 1—54. recto only) (c) Postscript (paginated i-iS recto and verso). It seems to have been written in two hands. The hrst two thirds or so of the main treatise is in a neat, polished, mature hand, and considerable care was obviously taken in the production ot the manuscript. Many passages of the rest of the treatise and the Postscript are also m this hand. This hand can be identified with confidence as that of the William Hobbs who wrote and signed the two letters to the Royal Societ\- in 1709 (though these two letters were penned less tormallv). It is perhaps not surprising that Hohbs. a sometime excise officer, could write a handsiime hand. The rest of the treatise and the Postscript are in a different hand, which appears less mature, less confident, less fluent and less regular. It would seem as thi)Ugh Hobbs obtained the help of a second hand in aiding him to complete the copying out of the manuscript — possibly a member of his family (this second hand may well be that of a juvenile). This might indicate that Hobbs showed a certain impatience during the later stages to complete the work. In many places the two hands succeed each other every few paragraphs. Errors m tiie second hand are often corrected by Hobbs's original hand. Hobbs signed his manuscript, at the end of the section 'To The Reader'. His name has been scratched out and almost obliterated. The signature — so far as it still appears — seems to be in the same hand as the earlier part of the treatise, and rather different in style from the signatures as appear on Hobbs's letters to the Royal Society. It is not clear whether Hobbs himself scratched out his name, or whether that was done subsequently, or. indeed, why this was done. At no other place m the manuscript did Hobbs sign his name. The title page refers to the author as 'W.H.". Identifying books by initials w^as. of course, common practice in Hobbs's day. It is not clear why Hobbs chose to appear simply as W.H. It is conceivable that he did it to avoid all connexion with Thomas Hobbes. It is rather more likely that, as an unknown author, he might expect more notice to be taken oi' his tract it it were virtually anonymous than if known to be by an antlior who had no other work m print. This assumes that Hobbs intended his treatise to be printed, or at least circulated. The manuscript bears one date: 'Julv lyis'. This is at the end of the section 'To The Reader'. The numerals 'is' have been scratched out. Since we have no rough drafts of the treatise it is difficult to base a reconstruction of the chronology of the composition and penning of the treatise upon more than plausible guesswork. Hobbs had presumably been making observations and having ideas about the structure of the Earth from the late 1670s, since he wrote in his letters to the Royal Society that his experience in these matters was of more than thirty years. Iiilroilui'lion 3 1 It scftin til iiic most probable that Hobbs first set out the m.i|or ideas of his treatise soon after he eoiiipleted his register of the tides, i.e.. from about 1704 onwards (assuming that he was dismissed troni the excise service at about this time, this might have given him the requisite leisure). Presumably, as he himselt claimed, he had kept his tide record in order to conhrm a hypothesis about the independence ot the tides from the Moon; and having demonstrated that, he would wish to write up such an interpretation. He then seems to have taken no further steps, until he made contact with the Roval .Society in 1709, sending them two letters (at least), the first of which spelt out his arguments about Motion and the Moon, and including his 'An essay concerning Motion', which set out main of the ideas {a;., about trade winds) to be found in The eartli f;eiienUeil. Why Hobbs decided, after his 'snub' from the Royal Society, to write up his ideas into the form in which they at present stand, is unclear. It may have happened exacth as Hobbs himselt states in his 'Postscript', which I .issunie was penned with the rest ot the treatise m 1715. At the beginning ot the 'Postscript' Hobbs wrote: "Tis almost ten years Since 1 composed what is generally contained in the foregoing Treatise', indicating perhaps that that was written about 170(1. and that he had put the work aside beciuse he had despaired ot being able to demonstrate the global movements and times ot the tides. However, as he went on to say, he had recently come across a work, the l.ii^lilniin; colKtitii. which solved such problems tor hini, and opened the way forward. Having re,id the L/i;/if»mi; column, Hobbs presumably telt 111 a position to expound Ills chief ideas in the body of his treatise, confirming them from deductions from the global pattern ot the tides in the 'Postscript'. Comparison between the papers Hobbs sent to the Royal Society in 1709 and /7/c eailh i^eiienneil suggests a considerable amount of reworking in the interim. tA-rtain areas ot Hobbs's thought appear much more strongly 111 the later treatise (cij. . his alchemical ideas), and what had been separate and isolated sectors ot his theories (c.i;. , his interpretations ot Monsoon winds) had by 171 5 been worked into a comprehensive philosophy ot the globe. One assumes that had the manuscript o( The earth (;eiicriilcil been in existence, in a reasonably complete condition, in 1709, he would have sent that to the Royal Society. A Note on editorial practice In rendering Hobbs's manuscript into print, I have tried to strike a compromise between two desiderata: (ii) the aim of providing an exact transcript ot the manuscript, (h) the aim ot presenting an easily read version. To the first end, I have retained the spelling, capitalization and punctuation of the manuscript. I have also indicated deletions, alterations and other emendations in the manuscript, where these might have some intellectual significance, rather than being mere slips ot the pen. I have tried to do this inconspicuously, distracting the eve as little as possible from the flow ot the line. At the same time I have chosen not to try to reproduce every idiosyncracy of the manuscript, since that would have been to hinder general readability. Any reader wishing to hunt among such idiosyncracies tor further clues m the appearance of the manuscript may consult it on the permission ot the Librarian, in the Palaeontology Librar\, of the British Museum (Natural History). On a number of occasions, Hobbs deleted a word or phrase and substituted one nearly identical. I have chosen not to burden the present text with these variants, since in my judgment the variations are ot no intellectual significance, and I have simply transcribed Hobbs's final intention. 32 The Etirth Getienitfil .»;./ Aitiilomized Hobbs had a highly elaborate practice ot representing relative degrees oi emphasis tor different words and phrases by the use ot distinctive sizes and thicknesses ot script and ditterent degrees ot italic and gothic script. In a rather simplified manner I have tried to retain Hobbs's emphases, largely by the use of bold type. I have used square brackets for the occasional |sic] and to mark the page numbers of the original manuscript. All other uses of square and round brackets are Hobbs's. An impressive feature ot Hobbs's original manuscript must have been the diagrams — some twelve in all, probably contained on about tive or six sheets. Of these only one sheet survives, containing four diagrams (nos 9, 10, 11, 12). These have been reproduced here. For the convenience of the reader I have attempted to reconstruct the remaining diagrams. 1 wish to thank Dr S. Conway Morris tor his great help m this task. Hobbs's scientific drawings were clearlv prized in his day. He had sent similar drawings and models to the Royal Societv in 1709. including a map of the Isle of Portland. William Derham remarked on their quality. At least some ot these survived through to the mid-eighteenth century, for notice ot them appears in manuscript catalogues of the collections possessed by the Roval Society ('An inventorv of the subjects ot natural history in the Repository of the Roval Society, Nov. 21, 1763' contains a rcterence to 'Representations of the Earth's Strata: 4 pieces, and also ot the Bell tish 111 a box' which are clearly Hobbs's). When or how they were tmally lost is not known. Notes 1 Original in Royal Society Archives, MS Ex i. 13; copy in Letter Book Supplement, d-H, copy. pp. 357-406. 2 At the end ot his 'An Essay concerning Motion', op. cit. (note i). 3 The following section is based chiefiv on the surviving minutes of the Excise Board, preserved at the library of the Custom House in London, and to a small extent on the minutes and correspondence of the Customs Board, also preserved there. Since these records date only from the 1690s, it has been impossible to trace the origins of Hobbs's connexions with the excise authorities. It appears from these that William Hobbs, Sr, was already excise officer at Weymouth in 1698, when, for a short period of time, his son substituted for him while he was sick. The younger Hobbs was posted frequently to new 'Rides' in such places at Taunton and Worcester, moving it seems to Hindon in Dorset probably in 1703. Meanwhile his father continued as officer at Weymouth, becoming officer at Bridport in November 1704. In [anuary 1704/5 Hobbs, Jr, was dismissed for dishonest returns. The same fate befell his father m April 1705. In August 1705 one of the Hobbs's — I presume the younger — was reinstated to a Devon collection. He served other Devon collections in the next few years. The last mention of him I have found in the minutes is in 1707. The other Hobbs does not figure in the minutes at all after his dismissal. I am grateful to H.M. Customs and Excise for permission to use and quote from their archives, and in particular to Mr F. R. Blanchard for his courteous help in explaining the archives, and the structure ot the excise service to me. See also E. Carson, The aiKicnl ami rii^hlful customs (London, 1972). Inlroductioti 3 3 ]'nma jiuic there might sconi to he some connection between William Hobbs ot Weymouth, author ot The earth gent'ratcil ami ivuitoinizfd, and the man ot the very same name who in 1714 published a tract, A new discoi'ery for finJiii^ the longitude, printed for the author who was tound at the sign ot the Porter in Baismg Hall Street, London. Apart trom their almost exact contemporaneitv, both works show interest in broadly similar problems — ot navigation ,at sea and its ditticiilties. But it is .ijmust certain that these William Hobbs's are in tact ditterent men. The author ot the longitude tract was a clockmaker (quite probablv the man ot that name apprenticed in 1672 in London). There is no intellectual cross-referencing between the two works. The London Hobbs was chietly interested in solving the longitude problem through fancv pieces of clock work; the Weymouth Hobbs was deeply interested in the much more philosophic.il problems ot the figure and motion ot the earth. 4 Weymouth and Melcombe Regis Corporation Records, 1699-1724, no. 259, iSs verso. 5 The Weymouth and Melcombe Regis Corporation Records (Item S 259 Minute Book, 1699-1724, p. 2366, Xth March 1722/23) mention a Mr William Hobbs as a school master. Dr Hugh Torrens has kindly drawn mv attention to the tact that |oshua Childrey was in contact in 1669 with a 'triend' from Weymouth who taught 'mariner's art' and was interested in tides. See A. R. Hall and M. B. Hall, The correspondem-e of Henry Oldenburg (Madison, 1969, 6: 109). It is just conceivable that this was the elder Hobbs. but there is no need to suppose this, since the teaching ot mariner's art must have been an important and integral part ot the economy ot a town such as Weymouth. In 1753 ■' school was set up for training boys who would go to sea; see M. Weinstock Old Dorset (Newton Abbot, 19*57). 6 The will IS at the Dorset t'ountv Record Office, Dorset Archdeaconry Records, DA/Wi743/.!^- 7 Op. tit. (note i). 8 Royal Society Journal Book, X 1702-14, p. 215. 9 Royal Society Register Book, IX, pp. 268-73. 10 Royal Society Journal B<5ok, X, 1702-14, 25th May, 1709. I assume that on both occasions 'his' in Woodward's sentence refer to Hobbs not to Woodward. 11 Royal Society [ournal Book, X, 1702—14, 13th [uly 1709. 12 This letter is Sloane Mss, 4042, t. 13, in the Department ot Manuscripts, British Library. There is a copy in the Royal Society archives, LBC 14 276. The Bear Inn was m St Mary's Street. 13 A similar provincial, contemporary with Hobbs, was Conyers Purshall. a country physician (? at Bromsgrove). who wrote .-in essay at the mechanism of the macrocosm (London, 1705). Purshall complained ot his isolation trom learned .society. His book shows a mixture, similar to Hobbs's, of rather acute criticism of fashionable mechanical and Newtonian philosophy, with some extremely eccentric and old-fashioned views {e.g., an apparent denial of Copernicanism). Like Hobbs, Purshall believed that the pressure of the aether accounted for all heavenly motions, but there the similarity ends. 14 See D. E. Allen. The naturalist ui Britain (London. 1976), tor an account ot the social development ot the natural history sciences in Britain. 34 The Earth GenemleJ Jiid AmtcinUed 15 This account is derived from sources such as J. Coker, .-1 mrvcy cj Donclsliirc. ivriliuiiini; the antiquities and muural history of thai ammy (London, 1732); John Hutchins, The history and anliijtiilics of the county of Dorset (2 vols, London. 1774): H.J. Moulc, Old Dorset (London. 1893); T. Perkins and H. Pentin. Memorials of old Dorset (London, 1907); and G. A. Elhs, The history and antiquities of the horough and town of H'eymouth and Melcomhe Reikis (Weymouth, 1829). For a rich guide to the literature on Dorset see R. Douch. A handbook of local history: Dorset (University of Bristol. Bristol. I9.s2, revised and corrected ed.. 1962). 16 For a good bibliography ot books and articles on Dorset geology see (i. M. Davies. 77if Dorset coast, a geological (;uide (London. 193^. 1 13-22). 17 M. [. S. Rudwick. "The emergence ot a visual language for geological science'. History of science 14 1976: 149-9S. The earth generated and anatomized: Text The ^ and A\L\TOMirED Cif/ler. f/WtCi. . (h^cAf^jhW/li , and ail elite r llhi rnic ^ tb ., , . hrf^ mo thln'nij S^j^loivin^ c^> I tdcS A'^'t'^^" f^'^ Two pinccj^vhciV tiuiiare once tii XV /)«y(y Ori'ji'ii'il'/ - 'inmVLi , ami lolwrc fhi'if iihi'mnfrli/ nuctetuh^vnicr- of tlw IJloOnX ^/"vrMi/i^ tftcfit.ii/iM,i conJu»d . futnble tofuch a ^iitbfcc't ; not bcjviv ndut'iu'c'il ■ ,T}le lohote betna cicdtured^jivni f/ieyfibl<^ '^"<^ T^nqihU J^/icfiwmena's ^me^fQ ^'/httlliC, tnuf " /r.?m ,\aturc .Ml./ \f\cctfon . ^' PI.ATF. I Pliiitiigrapliic reproduction ol the titli- p.iuc ol I lobhs\ treatise. THE EARTH GENERATED AND ANATOMIZED wherein is shewn What the Chaos was; How and when the Oyster-Shells, Cockle-Shells, and all other Marine productions, were brought upon, and incorporated in the Rocks and Mountains of the Earth. Proving that It was not at, or by the Deluge, as is Vulgarly Supposed. Also Why and When the Said Hills and Mountains were raised. As also shewing not onlv the certain Cause of the Ebbing and Flowing of the Tides. But even the Two places where they are once in XV Dayes originaly Moved; and where they ultimately meet each other. By which, as also by diverse Arguments, the Vulgar Notion of the Moon's Governing them, is fully confuted. Together with Many other Philosophical Doctrines and Discoveries; Suitable to such a Subject; not before advanced. The whole being deduced from the Visible and Tangible Phxnomena's ot unerring Nature, and proved by plain and tanuliar Experiments; and not from the uncertain Opinions of humane Authors; who, in things ot this Nature, trequentlv disagree and contradict each other. By W. H. a Lover (it truths drawn from Nature and Reason 3? The Etirth Geiieratcd and Anatomized — Wine arc in their Feasts; But they regard not the works of the Lord; neither consider the operation ot his Hands. Isai 5 v. 12. The hivisihle things ot God from the Creation of the World, are clearlv seen by the things that are made. Rom. I v. 20. For he hath Given me the true knowledge of the things that are; So that I know how the World was made, and the Power of the Elements. Wisdome 7 v. 17' The Eiuth Ct'iii-rali-J aiiJ Aihiloiiii:<;l: TcM 39 To the Reader It ina\ be discovered by the Title Page, That the ensuing Lines, do not onK' dilter, ti'oni the opinion ot manv Learned Writers, of This and the former Ages; but alsoe assert other Propositions, not before advanced: And though this may be a presumption in the Author, yet if it be duly considered, 'twill apear highly needfull to have been done, for manv Ages past; For tho' the Mathematicall Sciences, are Treated ot, with Such Nicitv and unaniinit\'; as that there seems no Room to correct what has been Written; not but Little tor anv turther Advancement; Yet in those Sciences, 'tis quite otherwise; For there are Such Diversitv ot Opmnions concerning, even the Visible Appearances m Nature; that a man knows not which is true, or which is talse; From the Consideration whereot, 1 was induced to Lav those opinions, vvholy aside; Not tor want ot Ciratitude to Some and due Respect to the Rest ot those Authors: But to try what I could Discover, as well bv observing the Said Phr; And is fullv warranted, from the process of Nature, 111 Clenerateing or Animateing of Matter: and also abundantly confirmed by the Shells being Visibly found incorporated m the Rocks as aforesaid. And what is more by this Hypothosis, Nature, Reason, and our dayly Observations, will be mutually reconciled: and the Manifold Absurdities, so inevitably arising from the contrary: be dessipated \' prevented. And forasmuch as diverse other things contained in the following lines are either New. or at least but rarely treated of; I am not unsensible, That there are Two things The Earth Gcnfr,ucil iiiul Aihitomiztii: Text 43 wanting, which might rccoininciul it tci the Readers approbation; (Namelv) First, That it proceeds not troni the Pen ot Some famous Learned Author: And SecondK' That it is not confirmed by the Concurrent Testimonies ot Such. As to the first ot these, I readily grant, that it it had been promulgated bv the Learned Crrotius, or DesCartes, or bv our adjacent neighbour [two words undecyphered] I mean the Author ot the tamous or rather mtamous Leviathan their very names might have given it such a Sanction as would perhaps Silence Objections But insomuch as I am not endowed with the learning ot the tormer, so I think titt tor some Reasons to acknowledge that notwithstanding the Vicinity before mentioned I am not anv wav related to the latter. I must therefore commit it, as it is, destitute ot the said advantages to the Censures of the Judicious Reader." But however to Shew, that it ought not to be rejected, barely tor want ot these accomplishments, in the Author; I shall endeavour to prove. That Learning especially of Languages;'" conduceth but little, to enquiries ot the Nature; For 'tis evident That [p. 7) Learning (I speak not to lessen its Excellency, tor 'tis what I highly honour and admire;) may teach us what is ii/rciii/y known |to others;] But 'tis not that alone, that will tiiide out new Discoveries; or intalliblv unfold the deep mistenes, imprinted in the Volumes ot Nature. For know in Musick, he that learns the Theoretic Part of Contra Puntum can play but onlv what is first composed. Whereas he that knows the latter can perform what the tormer never played,'' though he that implovs his time, in Reading what is alreadv published; mav know what other men have known; Yet 'tis the Setting one thing against another, by Contemplation , that finds out what his Authors never knew. Had what I have herein after treated ot, or discovered, depended only upon Mathematical! Sciences, or Orientall Languages; it had not been a Secret so long, as 'till the Da\s ot Euclid, or Aristotle; But as it is derived, from a Dilligent Searching into Natures Symbolical! CFiaracters, the bare knowledge of a multitude of Words, can contribute but little thereunto. How absurd would it be to thinke That Columbus's dark and Midnight conceptions of the Western World, that had lain so many Thousand Years in Obscurity, and undiscovered, Should proceed from Learning Spanish, Welch, or Irish; Whv then Should we undervalue our selves or Language, so as to thinke the knowledge ot CSreek, or Hebrew; as the Vulgar doe, to whom I am now Speaking, will teach us the Secret Misteries ot Art or Nature? Is every Native ot Greece, a Philosopher by Virtue ot his Language? or every Jew, a Mathematician by means ot his? Nay I'll appeal to Reason, Whether the more a man Spends his time in attaining Such knowledge, he be not thereby the more hindred and diverted, from Contemplation? by which, as is said, all new discoveries are attained. And that they are so, will appear by the following instances; For Was it not by Contemplation, that Pythagoras found out the 47'.'' Problem in the I Book of Euclide's Elements.'" at the Discovery of which so many Oxen were slain in Sacrifice; and on which so great a part of Mathematicall Learning depends. Twas 44 The Earth GeiieratfJ jtiJ Aiijtinitized [p. S] also by thinking and not onlv bv Reading, (for whatsoever is predicated or published, is already known,) that the Reverend Bishop, in the age of ignorance, lost his Life: for Asserting. The E,irth tiul not Rest on the Sky heneath them}^ And "twas bv the same, that the aforesaid Columbus, found out that Vast Continent oi America, tor those who after he returned, most ungratefully Slighted, and afronted him. 'Twas also by thinking. T\\m Archimedes found how to Discover, the fraudulent compounding of Mettles;-- at which he was transported as to forgett his Cloaths when Naked. And of later Ages, 'twas that bv which the Hon: "^ L: Napier^^ of North-Bnttam. bv his profound and famous Invention of Logarithms, converted Multiplication and Division, into Addition & Subtraction. And. Pardon mv presumption, "Twas also bv thinking that I obtained the Discoveries: with which you are presented, in the following Lines. In a Word, Learning produceth Knowledge: Knowledge fitts man for Contemplation: and Contemplation, finds out new Discoveries: From whence Learning was primarilv educed: and is still improved and increased. To conclude therefore seeing what is herein advanced was principally obtained by Contemplation; it may nevertheless be true, though it does not proceed from such an Author, as these before mentioned. 2'." The next thing that's wanting to recommend what is herein Writen; is because, it is not confirmed bv the concurrent Testimonies, of such Authors; Which indeed I have very rarely mentioned: But my reasons for so omitting, are First because they could not be obtained: And secondly, Because they are either Needless or useless and. First, That thev could not be obtained, is manifest; Because a great Part of What's herein Advanced, was not before discovered:^'' As the Time When, and manner how, and places where, the Waters are originially moved; with Divers other things of like Nature; as in the ensueing treatise will more fully appear. And being, as is said, not before Discovered, 'tis therefore impossible to obtain concurrent Testimonies for their Confirmation. And truly had I not been Assured of their Verity, as well as of [p. 9] their Novelty. I would not have given my self the trouble of Writing, Nor you of Reading, what is herein contained: But would even now tho' finished, burv it in Obscurity. Seeing therefore you finde me wholy averse to publish what has been already, rifthtly treated of by others; I hope my endeavours herein will be the more acceptable: and the rather because there are so many that have Writtin, even on the uncontreverted Mathematicall Science who might, (as Mr. Lilly-^ has done, in his treatise on that imaginary and imperfect Art o{ Astrclijiie) who might I say, have terminated their Labours, with a i\'i7n7 dictum quod iion dictum prius: as haveing left the Science whereon thev treated, but in the same state wherein thev found it. And since I have here, as well as in Section the Second, &c. taken Occasion to mention the said Art o(Astrolo(;ie. I must beg leave, tho it be a digression, to show That 'tis even such, as I have Deemed it to be.''' And r' That it is but imaginary is evident, in that it is founded on an imaginary, and invisible Influence, of the Planets and Fixed=Stars: of which, as is Shewn in the said The F.artli Giiifrali-iLiiiil Aihiloinizfd: Text 45 Section thc-y arc wholy destitute; .iiid therefore cannot m the least attcct us therewith; Whereas m other Sciences there are real and Visible objects. Whereby to demonstrate, the Rules and Propositions depending thereupon: As for instance, in the Noble Science o( AftwiioDiy. There are histruments, and the Visible Bodvs ot the Stars: by the use, and Observations whereof, their Position, Motion, and Revolutions, are plainly Discovered and computed. 2'.' In Geometry and other parts ot the Mathematicks, there are real and Visible Lines, Circles and Numbers, to Demonstrate the Powers, Proportions, and affections, that they bear each other. And 3'.' in the Pluloso[>liiuill Science now before us. We have the Visible and tangible Phoenomena's in Nature, to guide us in our enquiries, after the Causes thereof; as also for the Inferences and deductions |p, io| drawn therefrom; l^ut, injudiciall A,strologie, ther's nothing but Arbitrary Rules, and imaginary Aphorisms, to Guide them in all their Enquiries; So-that if M'. Lilly had thought fitt, he might have changed, even the PtiiLviuiick Table, of the pretended Essential Dignities of the Plannets; by putting Taurus, for the dav or night house oiMars, instead of Aries; for the like house of I 'anis, instead of Taurus: and so of the rest, at his pleasure; and accordingly their Effect or InHueuce, would be equally the same, to the Native or Querent. For the whole art, unless what Relates to AstroiioniN', proceeds but from the Arbitrary Rules and Assertions, of their first, or procceedent Authors, as aforesaid.// And 2'."' That the said Art is but Iiiipcrfctl. is evident. Because that in, and near, 66 Degrees of N':' and S';' Lattitude (Viz.') in Norway Finland, and the north part oiTartaria and other like places; the Art is as it were wholy Extinct; For if any Native be born, or any Question asked, at, or near the time of the Suns (or any other planets,) Setting from the n''' of June to the 13''' of December. Or, at the Suns (or anv Plannets) Rising; for the other halfe of the year; all the signes and Plannets, will be then and there in the First &■ Seaventh House, and all the rest of the Houses will be void and Tenantless; So that all the Astoligers in Europe, cannot Determine What Plannet, Such a Native, of Such a place is borne under; or what is Lord, or Lady, of the Ascendant; or any other, of their imaginary Houses; By which it appears, that the said Art is imperfect and Deficient; And in those parts of the world; even according to their own pretended Rules, wholy useless; as could te further demonstrated; But I must return. Haveing already Shewn, That the Concurrent Testimonies of Authors, cannot be obtained, for the Confirmation of new Discoveries; I shall now proceed to Shew; that they are Needless, or useless, to confirm, or confute; what is herein [p. 11] Advanced. And fust that thev are Needless is evident Because, that which Relates to the Discribmg, the Ph;cnomena's imprinted in the Rocks, and Mountains, of the Earth; are in them so conspicious, that all persons ma\' Satisfie themselves, of their being Such, and so posited as is described; even by Visibly beholding the Same: And as for that common Phemomencn in the waters, I mean the flowing of the Tides, it is so generally known and granted. That it would be, not only needless, but even ridiculous, to spend 46 The Eiirlh Generated ivul AiiaicniizeJ time to conform, that there is such a motion therein. Froin whence it is manifest. That Such Testimonies, are altogether needless, for contirniing the Being, and Position, of the said Pheiwrnena 's. And as they are therein Needless, so they are also Useless, for conhrming the Inferences, and Deductions drawn therefrom: For should we depend upon such Testimonies: to prove what we have assigned, for the Causes why. the manner how. and the Time when: those Characters or Svmbols of Nature, were imprinted in the hxed parts ot the Earth: Or kni\ & where, those in the Marine parts thereof (to wit, the Tides) are originially moved; I say, Should we endeavour to prove, what we have Advanced by Such testimonies: we should have spent time to no Porpose: For as we have already hinted, there are Such DiversitN' and Variet\- ot Opinnions, concerning many ot those Things whereot we have treated: That sliould the\- he enumerated, it would Seem to be: Tot homines, ijiiot Sentciitia-;- So that neither ot them, how Learned Soever can be depended upon, tor contirmmg or Contuteing what is herein Asserted. For a Conclusion there=fore. Seeing it is manifest That Such Testimonies, are not only Uncertain: but even needless and useless: And forasmuch as what I have asserted was deduced and Established trom the Visible, and Tangihie. Ph.rnomena's ot Unerring Nature: My request therefore is; [p. 12] That what I have Written, mav be Approved, or Rejected; but as it shall, or shall not be Warranted by, and from, the same Svmbolicall hnpressions from whence it was Derived; without haveing respect to the Opinion, of any Author whatsoever. And bv Such a Trvall, or Examination, I doubt not ot being Justified, in what is presented in the Following lines: Bv yours'* July 171 s William Hobbs We\niouth The generating the Earth, &c."' Sect: r: That tishzshclls arc tound plcntitull in the Earth as dcscriheJ in the figures hereunto annexed. That the matter ot the Earth was soft and even, when the said shells were admitted thereintn. What the Chaos, or tirst matter was. An Account of the Generatemg an animal; and that apply'd to the Animatemg the Earth. Whv Creatures ditter 111 their shapes, and Why they were not all Orbicular. WHEN, the Almighty Crciitor, formed Man after his own hnage, tho' he did not endow him w'.'' that perfect Oniiscicncf which is one of his ownc peculiar Attributes, Yet he gave him Such a share of Knowledge, in his innocency; that he was then but a little beneath the Angells of Heaven: And if he had So continued might doubtless, with facility, have given us, an exact Account of the Works of Creation; But his disobediently Aspiring after Knowledge, defaced the Image of his Maker, enstamped upon him, and thereby, clouding his understanding, made his Iffiioiivuc dayly Increase with his >/);; so that we have, now, no more knowledge of that great Work, than which God has been pleased to reveal in his secret Writing. Or else what bv our investigateing, and prying into the Secrets ofNiilurc, we are able thence to Collect; But the Account thereof in the Scriptures, being designed, to let Man know. That as he himself; So all things else,, had their beiiii^. from that one God which we are commanded to adore; And not to teach us PliYlcsoplncall Systems of the Creation; or to till us with Metaphisiaill Notions of things Created;"' the latter way, has, with Various Success, been followed by the most Ingenuous, and Inquisitive Persons of all Ages; Most of whom, tho' their Conceptions have been Deep and Regular; and their Methods and Reasonings, Elegant and Admirable; Yet by their not closely following Nature's foot=steps; have therefore Given us but lame Accounts, of its Operations; And more puzled us, with multiplicity of Idea's, than cleared our Understandings; |p. 14I Now tho' I know my self 111 divers respects, very untitt for Such an Undertakemg as has been thus attended; Yet haveing tor many Years," diligently Observed, and enquired into the Various Phiviioiiieiiii 's of Nature; and from thence Collected the following Hypothesis; am the more willing to Communicate the Same; Because 'tis founded and Evidenced, /')' and /rsophic.ill I'ostulatiis. the ensuemg discourse, is drawn and Established; I now come to consider. \\ h,u th.it Materiall substance was, whereot the Heavens, or at le.ist the Earth, were made; and ot what it did Originally consist; according to the words ot Moses, and our observations m naturall things to this Day. 52 The Ruth Geiu'ratcct ami AiMlomizeii By the account then which Moses has given us ot the Chaos, or first matter, it plainly appears, that it consisted only of Water.; for he tells us, "That the spirrit of God "moved upon the Face of the waters; and Ciod divided the Waters, from the Waters; "and that he separated the waters, that were under the Firmament; from the Waters, "that were above the Firmament; (!<^c. Gene: Chap; i.'" And that this has also been the "Opinion of divers Philosophers, is also evident: In particular, from the words oi Basil "I 'aleiitiitc. m his last will .md Testament page: gs-'"* in which he tells us. That God hath "made the hrst seperation, according to his Word; "The Spirrit of v. Lord, moved "upon the Waters; The whole Elementall Bodv. hath been Water; But the spirrit of the "Lord Zehoatli. hath divided it, and tashoned the Earth, from the Mudvness of the "[rb and/ii'ic; Though Niiw, not only the before mentioned Piuviioiiiena i, but all others, relating to the Earth, are. by supposing it to be an Animall. made plain and evident, and very easie to be accounted tor: Seeing therefore, it dos so naturally, and unavoidably arise from, and depend upon, the said Enquiry; I should not speak the thing that is rif^ht, concerning the Work ot Creation Qob: 42. V. 7.)"- should I avoid calling it. what it so plainly appears to be; haveing then already shewn, that there is a perfect resemblance, between the Earth, and its Inhabitants, in respects of their Vitality, and Essentiall parts; I shall further Shew, that there is the Same, in respect of their Natures, and Productive faculties. And 111 the first place, it is to be noted. That as the Heat, and Serous Sweat of the Earth; did naturally produce Horses, Sheep, Siidiie, Doqgs, and other Creatures: So the like Sweat of Those Creatures do Still produce. Fleas, Tiks, Lice, and other like Animalls; . . . and Some ot them (like the Earth), even of more than one Speices: And by the Same Analogic, no Doubt, but many of these lesser creatures do in like manner, produce and lunirish others |p. 33] that are, to us. unknown and imperceptible. 6o The Earth Gciifratfd mid Aiuuomized Secondlv. As the Earth, by its Sweat, (or what is thence produced), dos teed all Creatures, that did, or do proceed Irom if. So in like manner, the Said Animalls, do naturally feed and Nourish, all those that are produc'd by them. And as all those lesser Creatures, that are externally produced by the Sweat of common Annimals are ot different Species, trom those bv whome thev are produced: So those greater Auiinalls, that were Externallv produced by the Earth; were, and are, of a different Speices trom the Earth: But those Creatures, that are now internally generated; bv, and from. Such a Menstruum, as that by which the Earth at tirst produc'd the said greater Animalls: (Namelv) Bv. and trom, the same matter, that is bv Nature Concocted and Assimulated, to that Body, By which they are to be produced; I sav. These are alwavs, (Naturally) brought forth, of the same species with the Producer: and not otherwise. And therefore, as we have alreadv Shewn, Whv all Animalls were not tormed Orbicular: so we mav trom hence turther learn: That the Reason Whv, thev were not ot the Same torme and Species with the Earth: was because thev were ExternalK brought torth; and, it not wholv, vet perhaps, cheiriv, bv its own Serous Sweat only; and not b\- the Same numericall Matter ot which its own Bodv was produced. And therefore it could not produce them, as is said, but of a different Species; altho' the producer, and Produced, were both of them, perfect Animalls: And this is Confirmed, trom the Production of such Creatures to this day, (Viz.') hi that a Flea, is an Animall; tho" It be not a Dogg: And a Dcgg is an Animall; tho' it be not a Flea: and the same may be understood of the Earth: For as the Earth's Inhabitants, are Animalls, tho' not shap'd, as it is: so the Earth, is an Animall, tho' not shap'd as they are. [p. 34] Bv which it is evident. That comon Animalls and the Earth are both alike, or Assimulated to each other; as before porposed. And as they are thus Assimulated in respect ot the productions Upon their Bodies; so thev are likewise m those that are Radicated within their Superficies: For as the Earth produceth Vegetables and Mineralls, (to wit) Trees, Grass, Coals, Lead. Tin. Sulphur,''^ and other living and Growing Excresciences: So the other Animalls, do in like manner produce. Hair. Nailcs. Feathers, Hooffs, Teeth, and other Excrescencies, Radicated in and upon their Bodv'es likewise; and as these Vegetables, and Mineralls, are perpetuated, the first of them, bv their Seeds, to supply the Species of those that will perish through Cold or otherwise And the latter, (to wit) the Mineralls, by their Roots onlv; so the Hair, Nailes, Teeth, Hoofts, &c. of these lesser Animalls are perpetuated, (Not only during the Lives of the said Animalls, but even after Death,) onlv by their Roots, likewise. Because seeds, are altogether needless, and useless, to such Excresciences, as have no Menstruum provided for them, as the Vegetables and Mineralls have; nor being exposed to Cold; as aforesaid. From all which it is evident. That the Earth, and its hihabitants, are Assimulated to each other, as well in respect of their Natures, and Productions; as in their Vitality, and Essentiall parts. I shall now proceed to speak ot The Earths Internall Heat and Pulsation before proposed. Sect: ir. That Heat. Motion, and Pulsation are in the Body of the Earth; as well as in other Animalls. Divers Arguments from Nature, Reason, and Experiments proving That the Moon hath not the least Influence over the waters; Nor any Planet (besides the sun) over any Terrestriall Animalls; As by a Register of the Tides, Kept by the Author, for above two years Successively; By which it appears, that they Flow in a Roganthmeticall [sic] Motion, and not according to the Moon's; That the Flowing of the Ocean, is y' Cause of the Earths Rotation; and that That, is the Cause of the moons Revolution; illustrated bv an Experiment. That the Moon has no attractive power over the waters. And that the Gravitating power, lately ascribed to her, when in her Perigason, is but an imaginary Supposition. IT appearing, by what has been Said, That the Earth cannot be an animated Body, without an internall Hent and motion, or pulsation; we Shall therefore endeavour to prove that those Properties or Quallitications, are to be found in the Earth, as certainly as in any other Animall; and the First ot these to wit its internall Heat will appear First, From the hardned Cley and Rocks, that are Scituate at the Bottome of the Sea, and many hundred Fathoms deep in the Earth, where the Suns Heat, nor anv other, but that ot the Eath, can be pretended, to harden the Same. 2"': From the Sulpherous Heat, frequently occuring m Mines, and other Subterraneous Depths; as also from hot Baths, and the manny Sudden and constant Eruptions of Fire, which are mett with, in manny Parts of the Globe. But this Heat in the Earth being [p. 36] generally granted I shall ncn Spend time lor Its Confirmation; butt proceed to what I cheifly intend; being, in the Second place. To Shew, That the Earth, hath an internall Motion or Pulsation; And though this is evident, from the IIII''.' PostiiLitiiw or Aphorism, (viz.') because heat and motion, are inseparable; yet I shall attempt to prove it more fully, from the visible Effects it has in moveing the Waters in the great Ocean; and Shall, in order there unto. Lay down this Proposition; namely, "Tlhit the Ehhifi\; and Flowing; of the Ocean, called the Tides, is caused hy the internall motion or Pnlsation, always a(;itatin^; within the Body of the Earth, or tinder the Ocean; Atid that it is, with Respect to the Earth 's nia(;nitiide, in a naturall proportwn , to the Pulsing, in the Bodys of all other Animalls: Which motion, as it is observed, in lesser, more swift; and in greater, more icr 62 The Earth Geitcrjted and AihUomized slow; soc in this i',i.;f Body ot Earth, it piiheth only oner in 15: Davs: hcin^ (as the effect thereof approachetli on the Respective Coasts) then commonly called Sprin(i-'Iules: All othei Ebbmgs and Flowings therein, hein'^ Inn only from the the [sic] Sur^e, or consequents, of the said fifteenth Days Pulsation. And this I propose to proi'e, both NcgativcK- and positivcK and. First, Negatively, That the Moon, is not the Cause, of the Ebbing ami Flowing, oj the Tides. Forasmuch as my chieff designe, in this Negative parts; is intended to unhing, an Antient, and almost universall Opinion; I cannot expect, but that the taske will be the same, with what is common to persons concerned in rebuildnig antient Edehcies (to wit) prove more [p. 37] Labour to remove the old than to Lay the Foundation of the new. I must therefore begg leave to be more large on this head, than otherwise might be required. Now what this Opinion is, we cannot be ignorant: For we all know. Tis a common Notion That because the Ehhint^ and Flowing oJ the Sea; {dos, (as is pretended) exactly corespond with the Motion of the moon; Therefore she is presumed, to he the only cause thereof. Which I conceive to be more irrationall. than to ascribe the Motion of the Moon, to the Ebbing and flowing ot the sea; and that, tor these several! Reasons tollowing. First the Moon.''" is by Astronomy tound to be fortv-five times less than the Earth; and but a Secondarv Planet; and allowed to be ot an Earthv Nature; and theretore destitute ot any such ignious Rays as do usually proceed trom the sun; And being but a Sattellite to the Earth, is therefore, (according to the Rule of the Major governing the Minor) more liable to be influenced bv the Earth; if there was such a thing as hifluence in any ot the Orbs, (besides the sun.) than to be presumed the Lady Governess of the greatest Part of the Earths Superficies: And indeed ot that part, which keeps it, from returning to its tirst chaotick and lifeless Existence, for Experience tells us, that if the Blood in our bodves, be wholv stagnated; the Lite is therebv tullv extinguished; nav I would appeal to an\- rationall Person; whether it may not be more probably concluded that the vast Bodyes of Saturn. Jupiter, and the Earth, do give motion, to their respective Satellites, (of which the moon is the Earths') than that such small Bodves. should hifluence, or give Motion unto them, or anv ot such their essentiall Parts. The second Argument is this, (Viz'.) That the Being. End. and Eftect. ot all internall motion, in all animated Bodvs; is appointed and appruch some proper "Medium, that can convey the action, or Influence of one, of them, to the other.*"^ Now that this Globe ot Earth, not its Atmosphere, is not touched. h\ the Bodv ot the Moon, or any other starr, nor by any ot their Respective Atmospheres, (unless the suns';) and that the Sun's Atmosphere, is not a proper Medium, to convey any Influence, to the Earth, from any other Celestiall created Body; is what I purpose to demonstrate; and in order thereunto, that things may be plainly evidenced, I have, (as the Room would admitt,) Subjovned a Scheme, m Fig: 10':' ot the Position oi the Planets, and the proportion of their Magnitudes, compared to each other; according to that naturall, and well approved System, oi Copernicus: Bv which it plainly appears. Till' Eiirlli GcncriUciLiiiil Atuuoinizeil: Text 65 That the Biidy ot the Moon, tho' she be ten tnnes nearer the Earth, than any other Planet; is nevertheless, allowed to be above 1 14000. Miles distant tVom it; And their Atniosphers but very littleless. For tho' that ot the Sun, is so vastly great as to extend from B. to A. in Fig: 10'.'' (viz.t) from its own Body, to the Body o( Siitiini, and perhaps much hirther. Yet the Sublimations ot the Earth, as has been, by M'. Hiilly, ingenuously ciimputed;"" do not extend above 4s. miles m height: And the Moons, as by M'. Hufigais, much less.*"" From whence it plainly appears. That y'. Body of the Earth, not its Atmosphere, cannot be touched by y'. Atmosphere of the Moon; nor by any other Planet, or their respective Atmospheres (unless the Sun's) and consequently they cannot, by reason of their remote bodilv position, 111 the least affect, or InHuence each other; as was before asserted. I now come to prove, That the Sun's Atmosphere, is not a proper Medium . to convey that which is called the Influence ot the Cadestiall Orbs, to the Body of the Earth. But in the First place Lett us explain. What is to be understood, by what is Vulgarly called Influenced" and to Which, there has, in all Ages, been so Secret, and so Occult Vertiie ignorantly and talslv ascribed: Now to guide us herein we have the reall and Sensible Influence, ot one ot the Planets; namely, the Sun s; Bv which, it we rightly understand, wh.it his Influence is; we may, by comparing it, truly tmde out, what is meant, by that ascribed to the rest ot the Planets. The Influence then ot the Sun, is, (in breitt) nothing but the ignious Vapours or Sublimations, arising from that burning Globe ot Fire; which perpetually ascend from and, (like our Watry and Airy Vapours,) precipitates again upon its own Body. Now inasmuch as this reall and Sensible Influence ot the sun, is nothing but the said Vapours, &; Sublimations thence arising; and forasmuch as we have Watry Vapours, in like manner, perpetually ascending from, and returning upon our Earthly Globe, (which in imitation of the Sun's might be called the Earths Influence:) And Seeing the Moon and the rest of the Planets, are found by Observation, to resemble the Body ot the Earth; as well m their Nature, as in their Forme. What may be justly concluded from this Analogies. But that by the Influence ascribed to the Planets, we ought, (in a Word), to understand nothing else, but the Watry, or Firy Wipcurs, arising from their respective Bodys: Since then it is evident, that those Vapours, or Sublimations, must be what is meant, and to be taken, tor the Influence of the Planets; And Seeing those respective Vapours, cannot, as aforesaid, touch each other; we will examine, whether the Sun's Atmosphers, be a proper Mci/iudi, to convey them to the Body ot the Earth, or to its Sublimations, and In the first place, it is to be remembred. That we have m the Scheme annexed, (See Fig: 10:') already Shewn; That the nearest of the Planets (namely) the Moon, is by Satuation, distant from the Earth above 1 14000. miles; [p. 43] what is further evident, is from their Position in the Line ^^ y cf &:c." wherein it is to be noted. That if the Vapours, ot any of thePlannetts, could be conveyed, by the Sun's Sublimations; yet 66 The Earth Generated and Aiuuoinizvd those that bclcmg to the Moon, (when in Opposition, to the Sun) as also to Man. Jiipitir. and Saturn, would, instead ot being conveyed lo the Earth, be carryed farther ott from If. as the Ignious Vapours ot the Sun, ascends towards the bounds of its Atmosphere, at A. A. ike. soe that there is onlv the Vapours of the Moon. Venus, and .Mercury, (and those but only when they are in conjunction with the Sun) that can be pretended, to be convey'd to the Body of the Earth: For when the said Plannetts, are removed, but 4. or 5 Degrees, from the Conjunction; their Vapours, if conveyed, in the Said ^-Ethcriall matter, would not touch, or come near the Body of the Earth; as is manifest by the said Diagram; where the Speck, or the planett Venus, is removed to the Letter D. in which position, its Vapours could not, in the least, be conveyed bv the sun beams, to the Earth, to influence the same; and so of the/y when removed to F. as is before asserted. n\_ But besides all this, tis verv ridiculous to think that the Vapours of any of those Earthly Bodyes, if, even (when thev were in a right line, as at SE in Fig; 10'.'') should be convevd or carrved, for soe manv hundred thousand Miles, in such a different Sublimation, as the Sun's is; and after all. he brought back again, m the same Quantity, to their respective Bodvs; (which must be done, or else such a (ilobe would be destroyed;) I say these Things are soe improbable, nay impossible, that the\- ought not any Longer to be mentioned or believed by us. Wherefore, for a Conclusion, I shall only acquaint, (as I am fully perswaded,) That the Sense of the reall hitluence ot the Sun; has, tor want of the aforesaid, or a [p. 44] Like Examination, induced soe manv. Wise and Learned, to believe; that there was in Like manner, a respective Influence peculiar to. and communicable frcni, the rest of the Planetts; and thereupon, the Moon (contrary to Nature and Reason) has, from time to time, been allowed, to be the Governess ot the Waters of our Earth; and, (with the Rest of the Seaven,) foolishlv and unreasonably, deemed the Authors, of the good or ill fate of its hihabitants. But should we conclude, because this vast Globe of Fire (Viz.t) the Sun, (the proportion of which to the rest of the Planets is, in some sort, in the said Diagram exhibited) dos, at a great Distance, bv its heat and Sublimations, Sensiblv warme and Influence us; That therefore others, that are not onlv verv Small, as bv the said Scheme appeareth, but also EarthK' and Cold, have Influence likewise; & do thereby affect us. at a like, or far greater distance; I say thus to conclude, would be, as if a Man should pretend to warm his hands at an Iron Bullet that is frigidly Cold, because he may do it, at one that is red hot; Which to Suppose, or effect, would be contrary to Nature, sense. Reason, and Experience; and therefore I hope this may Sufficiently evidence, that the waters in the Ocean cannot be Influenced, or agitated, bv the Moon or any other, cold, eartliK Planriett, or by any natural! cause or causes whatsoever; other then what is before and will be herein after Assigned. And now I come to what was before proposed, (Namely) to Shew, That there is noe such (A^rrespondence. between the CAinsequentiall Tides, and the Motion of the The F.arlli Gciifr,UfcLviil AihUoinizal: Text 67 Moon, as is Vulgarly pretended. And ni the hrst place, tis to be noted. That because the dayly difference of the Moon's comemg to the South, (as by the common Tide Tables appeareth)^-^ is 48. Minutes. Therefore they pretend. That the Dayly Difference from one Tide to another, is the same likewise — And SccoiiJIy, That on what point of the Compass soever the Moon is; when it is full Sea in any port; on her comeing to the Same point, and its oi>i>osilc; She causeth full Sea (p. 4s) again, in the same place, at all Times Both which I have found by observations to be utterly false; For on my apprehending the Moon, to have no power over the Waters, I kept the following Regester'-', of the Ebbing and Flowing of the Tides, (with some intermissions,) for two or three years Successively; By which I found the true difference , and Nature of their Flowing; Observing, with all. the point of the compas, or Azimuth, on which the Moon was at such times. And, as to the first I allwayes found, That about Three Dayes after the new and Full moon, (it being then the greatest Spring=Tides; and not at the New and full, as is commonly reckoned) the dayly difference in their comeing (unless the Windes interupted them,) to be about 28. or 30. Minutes And, about three Days after the first and Last Quarter, (it being then the greatest Neap Tides) I allwayes found the dayly difference to be 90. 95. or 100. Minutes Whereas, the said difference in the Motion of the Moon, is 48. Minutes onlv: Bv which 'tis Manifest, That there is noc such Correspondence 111 their Motion, as is Vulgarly reputed; Neither can, as I humbly conceive, the said unequail differences, in the comeing or flowing of the Tides, be any ways accounted for, in the Motion of the moon; The inequality of which will more plainly appear by the following Register and by the Tide-Table from thence ^Equated, and deduced. A REGISTER 68 The Birth Generated and Anatomized at Wciltltcilth.BriJq..'"; .i,'l'/ ('| ".. .*/.-, .--4 /'/,- t 7 ^»* ■'./ n^7i-^- "^rr;; 1 » 1 -' 1 N 1 *; , /«« (. i 9I '•• '"• 1 )-i /( nu 7 1 vw.- !IU i '-- i ! -^• i "''' "t 1 •>" ' 1 .. 1 i :-/, , -; ' !<■ Wj ' ».' |?ii 1-, It 1'' «/.• 1 1 1 -'*' ! 1 . 1 " ■ -'• i 't' i 21 W.i 1 " i 1 1 '■' n i .•. w. '-'■ ' i . - - 1 ■ ■ ■ i 1{ i /.• «. 1 '"^ A <■ 1 ■■,^ ' i-;! 11 .'.' "i '<" .l* -1 -.' 1 ^ ,' 1 'I- 4 '(.: >' ■;,■ ,,( 2 1 n\ /. j .'.■; ../ 4 :<■ ■:t '. i:f'c>i..j I -' ■ .1 ;i (< cS -I ^ ■ h- ../ ' ly :• 1 (. 4.< /10 =. -' .■>' , .■>.■ Ill,- ,'•: ; 7 .V III. 2S ' I), ctI «I.- '; i.: ! .^ --^ ■:t V 1 ■■'=' ".'■ »^ : 9 -' „u 1 J 7 "/.- 1 7 ! y ^i./ i ^-^i : '7 -/ 1* /".- .^ , .^ 271 '".' ! ;.' j.V ;//.. 1 1 2", £71., /,' ■)}", "'-I 1 1^ 1 J2 ^.. l-.M II II ,\* ;;i.. j 2*'^ .' -7." -.r 12 iT> 1 m 1 -/' 5 /»• •■.»• 't' 1 ^^ 1 • ■ 1 l4 1 . ! ^/ y i iv-. ,./ -y! " 1 '*>' ; '•' .^q.^ J /ri 1 1 - • > III 1 7 . -'J "'" T' * -** •'.!■ 1 .^ >• ,,j ,.„• I ''•| J- y,.J /'/.• 1 ''7'^ q rf 0 »y ■■/ y" 9 1^ i i.-i i 7 M* »(.• l> 1 /c. c* /»,■ 1 OnnHsJr i.rc 'A.* ■/' y ! /.; .>.t '"' i .'/liy ./ i >•/ ",»" « II ;o /'(.■ , * ■ 1 !•] J. «/•• 9 J) J IM '-! -JC /Lv 1 '-\ 0 :i •■•^ 1 '0 t ;i ni "/ 1 *- 1 (. C) "t,. !l " ' 1 1 •' ./ y 25 ■■^ 1 ?2 1 / J '•! •■X '■ 4 •7 1 ?7 ■'.*■ 1 '■"' 1 1 i 1 1 ■>/;! 70 The E.irlh Generated and Anatomized >s "; 1/ 7/ ,f^i'i^ijtcr ,ji,u' ~{'Jej Si Cc'U^ v,-| ../ if 6 .» ■■/ ^' 13 '/(.J ■; ^i." ///^ -; ^•3 tn^ II •r^ I'lc jyce .^.. *rj ;".- I( I .■<■] Iiic II -/i1 '"i- /2| M-l •■■/ I I -ffl -.1 (. I .'.- 1 .1/ - 1,-, ../ - 4>'| '"•' /.. .-7 II'. I J , >'5; '". '2J.^' .-(^ : I 'V 9 1/ 'J I* ! s-lnl-^if I tl i IX "1. ,1 .,.- I " ••'1 "•■■ ^\c.:i ../ 7 .-V ■•/ iri ■ 'y I iVi /"<- i :'•! '-!--! ■ ' 171 ' '''■ ^^'' "" ! : « II /.> '".• I 2-; Ti /.■■•(/ I -fa; "'" ;.. '"•"■I II 5(. . .. f ■ \r^ -I , II \] I 4 \li7i ""l 1 1. 1 ; 2,-! -f ; 7 I J. »'.- 1 :-- II ;.i ' 2 I "■» |: I'l I J.., (/!,■ -r 1 1 ^y I -If ly'< •■/ JJ (1 i I The F.iVlh GcmriUcil iviit AihitoinizeJ: Text 71 '/ ,A^fc;(.>7f/' 7r/< .r i-r 2- ■tlktiir Shit i I •>- liic II I w'7 /"< Ji5(i I " ! ^^ I C">'.M //.'./" /', 7/1 'Si I/O '"I : - :ii "7 ! . 11 I IS /Mil /tto 'i' i /ii.i /7ci ^/h-;. iTi./rTci . ^^''" i5 i , H^ /III f ~^. i f 't ') '•■'' '"'• [ /c- • ' ; '"■ 1 7 .« '; It II l~ 'z '^ h- I" »7 /y "; 1.' If 11 -5 ! 1- 9/1 1 .1 ' .<» ; •;/ '•I ••>•, ...r ^ V 1 '"^t 9 .1 J '11,. ? ? ml / : u^c;./- ^ ...t I- 'I - .' " -J j ■ ^, A; .,f ij 7 / 1' liio iii I / J ' -/>' /",■ i ■ ' ' I // 4^' "I. ' 11 .>.' . i-c I .v/»/- J^ r'uli i>e I L r // /I h- II' 7 5 V iH..| "", ly [XfJ-in, 'S 2 1 5-^i^/ /9. I . ... :■• II IX 14- '■'Ih: i';l _ ^llnml j.,,^ 1 1 l/fo/r 7f »vrr^ t"^' I -/ 9 i" "<■■ \lcCTif*l"i'''j ^t >o \ 4f in.' -f 11 l"o "T^Vrt. li'iY'- •^"V "■'^'' ''"'- ll 3/ I \ io\4s' i"i: 7 ;V^M''"'' 1 I .iJ .11- iii.< i ..,.. I.. I ■A !«-7". 4 ;/'-•••' '^^ i 6 /. 7 7 J? '..-> ■ '/ 1 1 /iH I ic 1-, I/: v: ! ,> II i !i- 4 (1 4 4>^\^fr \\ 5 |..;,./- 9 // a 'J i-A ')• /(• /7 /*^ i'» ^9111^ . '1 -y ...f ' •'/■ ; "1 "/ 1 , ' •> 3 4 .ll 1-; .L ly- The Earth Generated and AihUomizeJ: Text 73 X,(c '*'••' |i^ j-nii je.i ;--i Ho "■' .., . 0- ^ h- •7;'/ 7 :4i- "It: i '^ I'M (1 ?4 lii.K /: :>^ u/ j^- \l, I l-C ../ ' 1 Jla\(f\ 1^ - - , IS J J^ ■•/ i ! /v.. J. l5 t>7.;.. - . . I i l>-^ .. - .1; 9 ■ '>2 I'L' ' <-ti'/cu\ (r,-,i >■ J- /'I,. ,1 u> -^- )1 j^' / J-' ■/;- J 'i> ■'^r .17 --J ' Cyi.: ■ .." . 3 1 n : ,■,- „j- ^ / ; ' .■ -/ + + , y't, ',./ » 6 •^.iri- V- lis nu< fo . ! . '/ l«\l(, mo ' ^ ..... 'iL "■ / ; /o oi '7 ... I If 4' '•» ../ i n '.? i-f !•• 2J : /■ Is 0 tIo -.r (> TO . f 7 4S JSmi c) r.. '( ill- 74 The Earth Generated ami Anatomized 111 "7 '/•in.~ IV ^1 . VV' ''^'''' '■' 1 1 .Sea III //..^ /r/^^r. 1"" uT, r Ml ; 1 .■;.• .•/ '•-■ i / 'V -/ -■; ; v.. 1 ../ ' ■■ -1;; I 6 a" h' liiu I X 2> II n. II /i" '". 14 1 -■'■ ■■» ((• ly .- >• ..f 15 .■-.;.. /.; .?,-r/;, ■? '.< •'^ 1.. > 4.< .'/ 1) ■■..-. 11 O ^c /'/*» V /J i" 1 "lU TlV !/■• n" ji m 17 // VS "!'' as, I . '.• ..f- ^V 5 ! J" •;/ ."'I ' ,- .v<. ../• > (■ .i. -/ ">, ^:-f- ■'/ t • ■' :; 7 '.' •■/ 4 - A' ..f 1* si; /'!.• '/'"'/ : * ]7-ii'z.-\ J} t-^ I . . !. > ■ y /,"• /;/. .'' y ■»\*^ '"• 9 1 ■ tc II If nto ' /' J l.'r. i )i ':?•:/ ;i / 7o ..y /3, ! H. 1 ? 4>^ ■■/ >f- 4 ■<-! -'f- lb l, .. .-t ly 7 "i "/ i '.•? d^ 1 -1. 7 ->y- m^ V l«' T/ 9 ■>-' '"•> 11 , ; I' ,ii» nio IJ II l\- 111^ 14 a /c H .-. /)/. ,,. ..,.; 1 I V)' "O" itf / /-■ ■•^ T.-- IS ? •?' -t i-; v '.- ../ ^j ■>' .''' "f- J I 0 4,- ..^ .~ • X ,■■; 7 y.. „/ V i r 5 -/•,'' /"!/ /. ^ /y /"c 7 1) -/>" "'<■ . 5 /ii Tt. /i\. •; ;» >V '"■■ ', /.• 3--I.. 1 II 11 1 v.- .._r ' 13 ." -^S 'T 14- i4 '--^ ■■* h- K' (. rj ..^ n -■' a ■•-. 7 V,- ./- la '9 .•^ .'-V ..f- 1 ..- 1.^ Thr Earth Gcncrateil ,vui AiuUomi:i'd: Text 75 L%l'^l^'- ..'• '7- .'> * Ha '/"'■/ I.I •Lt /it 11 /■J V,v /»<, 1^ /^ .>l' "(*> u / > .• 1 /111 ' 1 1\- \t' / (J. .1/ i 17 > /,- ../:, 15 ,> -^ — \' tdc . ijr.i, I ^Jolc,7h.'> 1 Jfu'nyf(,„l. III.-- J).(/.'L,-„.-: niu(/ C'^ r^.it,\ hu ,t,i././ \tujh'„y .-f f,,t h', ^'- . '::?'-1^;r^^:#^^. 76 The Earth Ceuenited and Anatomized •r 1.' 1 3'~ 5/-; 8S>' f /6 1^ M ^'^ ?,'/, (. -ii 4 -f.> il LI J I ? J-^ • 'I? ' t ■ - ■ -r I ■ II 10 > VI 7v »5 la /.. }<■ r/ h" :><■' 12 1." '^ /I 17 <^ ,^6 -I '■ . ly IS 10 2f -;.-■ h Ji<-"IJ Iff i- ' r.B J -L iJ. I; 4 V (. 7 .< 9 Jfi^tij ^J tile llwciij y/'^C U 'iin:ed: Text 79 gradually, & naturalK', to move Round therewith — In which, the Revolution ot the Bodv so drawn round; will be in a just proportion to its distance from the Bodv first moved7' Which so exactly agrees, not only with the proposition above mentioned. But also with the worthy Keplcrs late Discovery (Viz.') "That the time Spent in The [['. ."Jpl Revohttioii of the Phvietts, are in a Fixl, certain proportion, to their Distance from the Center of their Orbit; as that it even Demonstrates the same." Now that the Earth has a Diurnall Rotation, is (especially of late years,) So generally granted; that 1 shall only refer you to the Post=Script, hereunto annexed, for its Confirmation, and Secondly, That the Diurnall Rotation of the Earth, dos Give Motion to its Atmosphere, is evident; in that its Atmosphere, dos always turn round, and accompany the Earth, in its Rotation; and that even in all parts of the world; unless about 30. degr:' on each side the Eqtiinoction: and 111 that part too, in the Continents; where the Hills and Mountains Stand up in the .-Ether, to further the said Motion. So that the Trade-}]'inJs, which are those that do not quite keep an even pace with the Earth, are onlv found on the Smooth Ocean, between Africa, and America, and thence to Asia: where, we know, there can be no Mountains Standing up, to interupt the Said Windes: or to Cause the Atmosphere, to turn with; and accompannv the Earth, as it dos at Land: And if you would have this turning of the Earth, in its Atmosphere; (whence the said windes are produced,) plainly represented, and illustrated by an Experiment; It is but to draw a peice of Board, or the Like, on the Surface of a Cistern of Barly when the water is first fiird up, about 2. or 3. Inches above the Corne; or on any Shallow water, haveing Dust or Chaft Strawed thereon; And you may see the Floating Dust, turn in, on each side, as you draw it along; just as the Said windes do, on each Side the y^quinoctiall Line: [p. 6o| And (it drawn from West, to East.) the waters will turn in on the Same points likewise; And by the uncertain or irregular ruftlings, and Calmness, of the Watercs; at and near the End of the said Board; will in like manner be plainly Shewn; the Calms, and intermitting Concussions, of the windes; on the West Side of Africa, and else where; called the lornedoes. And what is more, if Two Boards, be cut in the Forme of the two Mapps. (or rather, only of the Forme and breadth, of that part of them which is between the two Tropicks) and fastned, or jovned bv two or 3 Wires, standing up, arching over the waters; I say you will, in drawing them as aforesaid, evedently see the Cause, Whv the said Windes turns in, on the South side of the said Line, on the Coast o( India: and not on the North: As also the constant Calms, that are found in those and other parts of the World. All which I have with pleasure beheld by the Said Experiment. And as the turning of the Earth, is the Cause of the said windes; so the very Being of these Winds, dos plainlv Demonstrate the said Rotatioti of the Earth; For if the Earth did not sii turn; it would be naturally impossible, that those Windes should be Produced.' " Now seeing it is evident that the Rotation ot the Earth, dos so move its Atmosphere. (or at least that part which toucheth, or is nearest to the Earth,) as to cause it almost in go The Earth Generated ami Aiiatcmized all places, to keep an even pace with its own Body. And seemg it cannot be denyed, but that the fluid ^tlier or Sublimations of the Sun, dos touch and incompas the Earth, and Its Atmosphere: and also the Moon & Her's, as by Fig: io'''appeareth: And seeing also, in the said Experiment, [p. 6i] the fluid matter that toucheth, or is nearest to the Body^irif moved; dos almost accompany y' Same: Whilst that at a greater distance, will in proportion, move more Slowly: How can it be denyed from the conformity of those Motions, and the contiguity of the Said /Etherall Matter: But that the Earth, by its Diurnall Rotation, dos move its Atmcspherc; and that this Atmosphere, dos move the Azthcr. and consequently That the said /Ether, dos give motion to the Body ot the Mi\m: altho', by reason of her Distance, her Motion is about 27. times Slower than that of the Earth; as is before observed — So that by what has been Said. I hope it is evident; That the Moon is so farr. from being the Ct a The F.iirth Gnu'riUi'il ijiul Aii,itoini:al: Text 83 Collumn nt Air, being the Assigned Cause oi the Rising and Sinking ot the Mercury in the Tube; stnne will therefore Infer, That the Motion of the Thoni.w and consequently our Lives, are owing to the Like pressure;"^ But that this is a groundless supposition, is evident from our Liveing soe long underwater, in those Sort oi diving Engines*"' Wherein the Said Collum. and its pressure, is wholv interrupted whereby, it it were So, Death would nnediatelv ensue; But we hneie by experience the Contrary. Another like Notion is that ot Monsiur"' when he traveled with one ot the Asiiiii Princes; wherein he pretends, with the Said histruinent, to Measure the Height ot a very high Mountaine, or rising Ground, tho' it required Severall Dayes Journey to Ascend it; hi which Time, 'tis well known; that the very Change ot Weather might naturally Cause a great difference, in the Hight ot the Mercury; and thereby render Such a Calculation very uncertain and Erroneous — And as tis thus uncertain, soe likewise needless; For by a Chain,'"* Or the Wheell of his Coach, and a Land Quadrant, he might have |p. 67] taken the Hypotheinisd, and the Angle at the Base, and thereby have obtevned his desire, to a moral pertectum. From which histances as also trom others ot like nature, it is evident; that Erroneous hiterences mav be derived trom reall Pheiioiiieihi's. we will theretore now Enquir whether the pretended /'ro«i/r<' ot the moon betore mentioned be not one ot that number. And in the first place, I humblv conceive. That such .\ pressiiii;. or Gravitatemg Power is not to be tound in any ot the Celestiall Orbs; Specially whilst they are naturally posited, as the moon is (tho it mav be supposed ot Commetts, or of Bodyes occasionally removed as aforesaid:) And my Reason is. Because it soe, whensoever either Satiinie. ]iipiter. or Mars, should approach towards, or come in opposition to the Sun (which is their assigned Centre of Gravity,) they would then Gravitate towards the Earth, as well as towards the Sun (seing the Earth is at such times alwayes between the Sun and them; as will plainly appear by Figure the tenth; and the better ii you turn up the Book, so as that Saturn may be at the top of the Said Figure,) Whereupon I say, if there were such a pressing Power in them, they would then cause Such great Tides, That we Should be induced to conclude; That the universall Deluge, was as soon atter the Creation, as those Three Vast Bodys, (or but any two of them) came, in some proper Signe, to such an opposition ot the sun; as is described in y' Line S.E. m the Fig: atoresaid.**" And it you would know what Signe that was; To be Sure the Scheine=Makers, will tell us, 'twas in Aquarius, or the water bearer; (tho" others would have it m Gemini), And some reconciling Naturillist, perhaps D': N.""' will [p. 68] refer us to the Rainbow, tor the Reason why their Gravitatemg power is now restrained. But how improbable, and inconsistent with Experience; these conjectures are, I leave to be determined by the judicious Reader; and proceed (2'?'*) To the Moons causing (as is pretended) tull sea, when in her Perii^ivum, or nearest distance from the Earth: And this I conceive is not in the least to be regarded neither; for it you consult but a common Almanack, you may in one years Time, tind her in that position, at all States ot the 84 The Earth CjcneratfJ jtui Aiuloiiii^ed Moon; as well ;it the Qiwrfcr.T, as at the tull and Change; and consequently \i that was the reall Cause; it would accordingly be spring=Tydes; some times at the Quarters of the Moon; and again, at other times, at the hill and Change; which common Experience dos dayly confute. Nay what is more, it there was such a pressing power as is pretended; How the Apoga'cn, and the Pcrigxon of the moon; should both produce, one and the Siimc EfFect. (as by their account it must) is a self=confuting Misterv, as great, if not greater than the former." By what has been said, it may reasonably be granted. That there is noe such Gravitateing Inclination in the moon, or anv of the Planets (whilest naturally posited) as is pretended; For it twa's; what should hinder them from executing their propensity? seeing the Commetts can precipitate, soe near the Sun without hiteruption, as to be sett on tire by it. But however, that I may not seem to begg the Thing in Question; \ye will Suppose there is such a Nature in them as is proposed; Yet nevertheless, I conceive it is impossible. That the Body of the Moon should soe press the .'Ef/icr, as to cause it to produce the Ebbing and Flowing ot the Ocean: And that my Reasons for Such a conception, may the better appear; I shall lay down these two Propositions or Postulata's. "First if two, or more Grosf Boilyes {ofequall Mtii^itilitiie ,) doc iiio\>e, or prccipitiilc, in iiiiy " iiiiconfinrd fiiiid niiittcr; The Quantity i'/ .i(/'/)i'«' the Cause; in the other. And that too from what is likewise visible in the Eele before mentioned; All of which being soe plain, 'tis needless to Spend time, for the further Confirmation thereof. Wherefore seeing 'tis evident, that there are, these Active, Passive, and fixed parts, in all Animalls; And inasmuch as the two latter, to wit, the Flowing passive Waters of the Ocean; and the fixed Rocks, Cley, sand, &c; of the Earth; are visible in its Superficies; How can it be denied but that the First, to wit its Active part, is posited, under the Waters to give motion thereunto at the two Poles of the World, as was before proposed: And consequently. That this Globe, whereon we live, is a perfect Aiiiinaled Body, or a Living Animall. I shall now proceed to the Second part of the proposition. Namely, to shew, That the Succeding Tides doc depend upon the first lifting up of the Waters; And herein you may remember, we have asserted the pulsing of the Earth to be only once in about 94 7"'"' E,irtli GcHiTiifci/ jtui Aihiromi:fd 15. davcs. If so, it niav be [p. S6] askcii. How it comes to pass. That there are Nine and twenty Ebbings, and as many flowings, in that Space of time. To which I answear, that these intermediate Motions, are naturall, unavoidable, and common, to all Huid (and other) matter, putt, or posited, in ^'Equilibrici, (as the Water in the Ocean is;) whensoever it is therefrom, anv waves moved, and. To prove this we have verrv familiar Examples in Nature (e.g.) hi a Plunimett of Lead tyed to a String, and hung at large on a pin: or in an equall poized Biwii. or Scales: For if you Swing the one, or lift up the other, they will either of them, (in a diminishing Manner,) move 20. 40. or 100. times with that once moveing only; much like the Motion in the Waters of the Ocean. But that which I found exactly agreeable thereunto, was from an Experim'. which I tryed with Water it self: being put into two Wooden Shoots or Spouts, one about 22. the other about 4. toot long; Which being respectively at one end, gently moved up, and lett down again, the Water in cither of them, did thereupon naturally run to the other end; and being there Stopt, as the tides arc, by the Land or bv meeting each other in the Ocean, I observed that m its turning, and returning, it would Ebb and flow 15 or 20 times, more or less, with that iVice liking up: In which it allwaves kept to that naturall and remarkable Phenomena in the Tides, (viz'.) of Raising higher, and running S witter, at the time and place, of its being first lifted up, and soe gradually decreasing and diminishing, both in height, and Motion, rill it quite ceased; which exactly corresponds with what is (p. 87] allwayes observed in the Motion ot the great Ocean; as is before asserted, and illustrated, by the T)hic Tables, and their explaination: Now the reason of the diminishing difference of its flowing and returning is plain; Because at its first lifting up, it is raised farthest, iroxn its Horizontall position; and hath thereby more advantage to hasten thereunto, than when 'tis allmost in Equilibrio: As water will run Swifter down a steep place, than it will down a Stream with a small descent: And as it will then run Swifter, So it will also float any thing faster, and farther, than when the Motion is become more faint and languid. All which doe plainly Indicate that the deep Waters (being posited as aforesaid) are moved up. Only once in 15. Dayes; and that their other iiilernu'Mate Motions are only the products or Consequents of the Said Original Motion: or otherwise, thev could not decrease and increase, the Difference in their Ebbing ^ Flowing as before described: For the Davly difference, m the southing i^c: ot the Moon, if that governed the waters, is, as it were, allwayed Equall; And the Magnitude, and Light of its Body, unless when Eclipsed, is allwayes the same// I could now proceed to prove, that the places where the Waters are first, moved, are as we have hinted at the two Poles of the World: And that they do ultimately meet, in, and near the Eqiiinoctiall line: as also how they make (in the wide Ocean) a FhuJ, and Ehh; at about every 700. Miles Distance; by means whereof there are severall Ebbs, and Flouds, alwaves existing between the Poles, and their Equinoctiall meeting; (it being 5400. miles asunder. 2'."' That the Disparity or great Quantity ot water, brought. The Earth Gt-m-rali;Luid Anatomized: Text 95 by the Said Flowmgs; between Aincricti, and Asia c^■)mpared with the Parvity so brought, between [p. 88] .4/rini and Niva HoLvuUa: is the Cause of the Earths Rotation: And that the said Rotation is the Cause ot the Trade^Whities; as also of the Toniaihes ik Moiisociis thereunto belonging. But inasmuch as I have, as is Said already hititcJ at some of these; and fully Aiscriheii the others, in the Post Script hereunto annexed; I shall thereunto refer, and proceed to the Raisiiit; the tour Quarters ot the Earth//. Sect: IV. showing The time When the fishes were Generated; and the Veins made in the Rocks & stones; also, when the sca^Fowles were Generated. That the fowr Quarters of the Earth were raised, hy its Pulsing: That u'hen these, were raising, the shells were then itnnuissed or niin(;led therein: As soon as the Earth iiuis hardned the Animalls were gradually Generated; and whv it dos not now produce such great Aniiiialls: That they were nourished hy the Umbilicus. Whv and When, the hills were raised. How, and when, the Earths Rotation ii-as produced. Why Trees have no Females; & why some Animalls hring forth many young and others hut tew. That the Rii'ers are caused hy Rains. That the Earth was probably, what we now call, many years in Forming. That twa s naturally impossible for the Deluge to imnia.'^s the shells in the Rocks. And lastly that the Earth, was not from Eternity. It being evident that the Earth h3.i. pulsation as well as other Amimalls; I shall now shew some further Eftects thereof in the forming its own Body. And in order thereunto you may remember; when we at first Spake of Generateing the Earth, we then left it consisting ot a [p. 89] smooth, round tonne; and ot a liquid Substance; with its internall heat and Motion, agitatemg within the interiour part thereof. Our buisness in the next place shall be to shew, m a more particular manner, how from this liquid Substance; the tour terrean parts of the Earth, were raised or increased: But Betore we proceed thereupon, must Acquaint, That the Several! Species of Fishes, were Generated [before] and [in] die raising thereof; or otherwise they could not be incorporated therein, and mingled therewith; as we now generally tinde them. And in order to evidence the same; It is to be observed. That whilst the Earth existed in this almost Huid State, the Superticies thereof must then, be naturally soft and tender: Whilst that which 96 The Earth Generated ami AiialomizeJ was nearer the Center, was by the Earths internall Heat, made more Gross and compact: And Forasmuch as the Waters were, as has been said, at the first Creation, Fresh or incipid. and also unprincipled with i pLislkk or Generating Nature; and being (as the form of the Earth was educed,) gradually made more cleer, than when the whole mass was promiscuously mingled together; I say this Water being by these Quallitications, become more htt for Generation; The Great Command ot the Almighty, (wherein the said. Let the Waters briiii^Jorlh abimdanth Fish. Fott'les &c.) vyas then (to wit) betore the Superficies ot the Earth was hardned, or any Hills raised; most admirably and effectually put in Execution; And thereupon, not only the great, and small sorts of Swimming Fishes; as the IVkilc. Porpoise Sahiioti &c. But also those crawling, and other almost immoycable shell=tishes; as the Miisle, Oyster, Sdilloi', Cockle, and the like; were [p. 90) most numerously generated and brought forth; and the Waters thereby most plentifully replenished; as is evident, in respect of the matter that produced them, from Gen: i. V: 20.21.22.'"' And that this was the Time, wherein they vyere soe produced: is also Evident, from their being to this day visibly immassed in the Rocks, as has been frequently asserted; and will further appear by the following Lines. The Fishes being thus generated, and, according to their Species; either Swimming in the fluid Ocean; (Which then incompassed the whole Earth;) or lying in the Bottome thereof We shall therein leave them, and proceed to Shew, how the four Terrean parts of the Earth were formed, or raised above the Waters: And herein we must reminde you of the VI'.'' Postulatum before mentioned. Namely, Tktt the same Motion, that dos gii'c Lite, ami Forme, to any Creature; is continued therein for its Sustentation: And so, on the Contrary, Tliat Motion, Which is continued tcr its Sustentation, is y". same with that, which gave it its first Forme, or Modification. From whence we may plainly discover; That the Motion which is now continued in the Ocean, is the same; with that by which the Earth, was first formed into a Living Body: Which being granted (as it cannot be denyed.) We may thence infer. That as the Waters doe now bv pulsation, rowl and overflow the Marine parts of the Earth; soe in like manner, whilst it was forming, it then being smooth &. even, and no Land raised to hinder the Same, the Waters did then Ebb and Flow, over the whole Surface of the Earth; even over what is now the Land part; as well as the sea. And as in the Generating of other Animalls, their perfection is gradually [p. 91 ] educed; by the disposing and transposing of the respective matter, whereof their severall parts are formed, by means of Pulsation only: So in Like manner the Body ot the Earth in the multiplicity of its fluxings and overflowings; Did transport, or cast up; not only the thin, but also the argilacious and Grosser water, which was in the Bottome of the (now) marine parts of her Body, upon what is (now) the terrean parts thereof. Makeing then, and thereby, the Beds or Ranges in the Earth, exactly parelel to the Horizon, and The Eiirili Geiifratal iVhl Athnomizal: Text 97 to each other, as is described by Fig: T.' &' 8'.''"" hi which naturall pulsings and rowUngs of the said Gross Matter; these Fishes especially that were incapacitated for Locall Motion, (as the Oysters. Wriiicles, Cockles &:c.) and were then, as before premised, Engendred on that part of the said fluid Mass, which is now the terrean part thereof. Were I say, by and with the said soft Matter, covered over, mingled, immassed and incorporated; in such a manner as we have before described, in Fig: the i 2 and 3:'"^ As also Cley, rowled into round formes and hardened into Pebles &c. All which Fishes, shells. Pehles, sami. and the like, are now generally found, as well in the Rocks under the salt Ocean, as in and on, the terrean parts of the Earths Superhcies: and that in many places of the latter to the Debth of 40. 50. or 100. Foot; as I have frequently observed, and is before asserted and discribed: And that the shells &.'c. were thus frequently covered over, is evident, because, there are many ranges of them, in the said Debth, one above another, with Rocks and Earth between them; which have noe shells therein, as the Figures doe plainly exhibit: (see Fig: 2.)"" in which [p. 92] that part marked with F.F.F. have m? Shels, tho" under and above they are plentifully immassed. Where as, if the forming of the Earth had been otherwise (to wit) by the precipitating of shells and Attomes of Gravell, and Earth together, or such like means; (as some would have it,) The shells, being Lightest, would have been all uppermost; or at Least the Matter, would have been promiscuously mingled; as in Fig: the 7; """ and Not have been parelel, and evenly seperated, as we now hnde them. And this may suffice to Confirme That the time when, and manner how, the shells were immassed in the Rocks; was whilst the matter was soft, and no hills raised, as has before been frequently mentioned. And the Reason why the said shell=Fish, are found in the Rocks, more plentitull than other Fishes; Is because they were not capacitated to extricate themselves out of the said Muddv matter, as the other Fishes were.'"' And further to put it out of all doubt. That the mucilaginous Water, was thus transposed or emtyed, out of the Marine parts of the Earth; and cast upon, or Fluxed over the four Quarters thereof; will plainly appear; Not only in that the said Strtitii 's. or rather fluxmgs, are all parellel to each other, in the Bedds or Ranges of the Earth; but also because, that in all cornish Slate or Tyles; as also in almost all sorts of thin Stones; you may see the said flti.\in(^s of the sea. that were roled over, or cast up in forming them; soe plain, that Nothing but a Confirmation is to be found therein. For as we all know, a small Rush by frequent diping into a tatt, fluid matter, is increased into a Candle: soe in some stones, [p. 93] if but 2. or 3. inches thick, we may finde halfe a Dozen, or halfe a Score, severall fluxings, in the makeing thereof; And some of them may be split, into thin Shivers answerable thereunto: as I have frequently seen and performed. In which it is further to be noted; That as long as the matter thus cast upon the Earth, was homogeneiil: or was not dryed between each Fluxing; there was no partitions, or Beds made in the great Rocks, nor in some lesser Stones; as is shewn by Fig: 2, But when different Matter, was cast upon the former; or the former matter was 98 The EiUth Generated and Anahvnized Dryed between tile riuxmgs; it then caused those Horizontal! Ranges, or partitions in the said thin Stones, and in the Rocks and Beds of the Earth, which at this day are visible therein; as in Fig: 1.2. 3. & 4:' is described; and is also evident even bv many of the stones in the walls, ot the Rovall Exchange'"" London; and b\' manv thousands of Buildings else where: And from this Fluxing of the Ocean; and at this time, (to wit) before the hills were raised; (for after it could not be;) it was, that the sand, as also the Pcbles & other Marine productions, that we frequently finde, as well on the Mountains, as on the more Leavell Parts of the main Land, were cast up and in.ide: For by the Rowling of Lumps of soft Cley, the Pebles were made; and by the Washing of the Earth, the sand was and is still produced, and that this is true, is evident to our visible Observatiiin; For on the sea Coast, where anv Clev^Hill adjovneth, in particular about a Furlong to the East |p. 94] ot the Passage leading into the Isle ot Portlaid,'"'' I have seen thousands of Smooth Pebles. that have been made, of irregular Lumps of Cley. tumbled from the adjacent hills into the sea and by its Motion, rowled into smooth Pebles; which in tew years have been hardned, into as pertect Stones as those that you would judge to be made a Thousand years before. So that I have frequently with Ease thrust a Stick through some of them; and at the same time with difficulty broke others by reason of their hardness: And that the sand was produced as aforesaid is visible to dayly Experience; All Which may serve as a further Confirmation, That the hard Rocks were produced from a soft Substance as aforesaid: And haveing defended to particulars in this; I would also Acquaint, That if any Person is desirous to satistie his Curiosity, concerning the Position, of the Bedds or Ranges of the Earth before mentioned; It is but to walke by the watters side, at Low Water from the said Passage, to Whitenore=Fort, near IVcyniotith;"" (which is but about a Mile Distance.) or on the Sea coast in the Isle ot Portland &:c. And he mav there see, what I have before asserted, concerning the Position ot the Rocks, and Bedds or Strata's ot the Earth, and of the shells being immassed therein; as plainly Demonstrated, as anv ot the Propositions in Eiiclids Elements are. by the Lines and Circles therein contained and Described: And indeed more fully, and far better, that any Words by me devised can express the Same. The Marine part of the Earth being by the said fluxing, and transposing of the Terraqueous Matter, (together with the tendancv. intention, and generall dcsigne of Natures Proceess) in some measure emptved upon the Land; it will follow. That as one part was thus Sunk lower; the other |p. 95] must thereby be made Somewhat higher: And hereupon it was that the Waters began first to be gathered together, and the Dry Land to appear; as we Read Gen: i. v. 9. 2. Peter 3. v'" Now seeing the Waters were in some measure, thus confined within their bounds; and thereby prevented, from constantly overflowing the Earths whole Surface, as before they had done, we may naturally infer (amongst others) these Three Things (viz:) Fint That the Earth, did thereupon begin to Dry and harden into Rocks, and stones, &c. And that in this hardening it C]racked into divers small irregular Joynts or Fissures; 77ii' F.iirili C,i-iur,it(d mill Aihiloini^cJ: Text 99 as wc sec aiu' incnst CAc\ or niuJdv Earth m hut seasons will doe to this dav Secondly That when the waters, Howed over the whole Surface ot the Earth, they must then, (to wit.) when the Earth was solt; be more gross and Muddy, than when the Earth v\as hardned. .uid the waters gathered together as aforesaid. And Thirdly, That although the Waters after they were thus Collected did not constantly, overflow the Earth, vet masmuch as it was then, and is now. at Sprmg=Tiilcs; severall feet higher, than at other times. I sav, it did. at such Tides, nevertheless, overflow its whole surface. untiU the Earth was gradually raised soe much higher, as to prevent it there=from: Now it being evidentt That the Matter of the Earth, must naturally be Crack'd as abovesaid; and that the Waters at the same time did intermitingly flow over it; It will as naturally follow. That the waters or other Clear Glutenous and Cristalined matter, did, and must unavoidablv. run into the said Cracks or fissures, and therby fill them up; Whence, it will also follow, that this must certainly be the |p. 96] Time n'hcti, and the Manner how. the transparent, ,md other different coloured Matter,"' entered into the said Crackled Fissures; and therebv made those irregular, and Various coloured I 'ciiis, in the Rocks of Marble and other Stone, that we now see incorporated therein. And from thence it was, (iiamelv) From the cleerness ot the Matter, That those Veins are commonly more transparent; than the rest of the Stone wherein they are finmd; As also from whence Diamonds, Flints, Marble, and all other transparent Stones are, or were, produced. And It is further to be noted. That although those Fissures, and other like Cavities, that were made m the Earth . . . during the time that these Spring=Tides did thus flow over It Were thereby, and therewith, filled up and incorporated as afore=said. Yet nevertheless, such of the said foynts. Fissures, or Cavities, as were Made by the Drying of the Earth; (for that was the only means whereby they were produced,) after it was raised so high as to prevent any Fluxing over it at all; I say such Cracks and Fissures did, and do still remain, open and unfilled: Except those that were Since fill'd up, by the loose Earth, or by the Factitious earthlv Matter, that was, in process of time made by the Rotting of Vegetables, and Animalls; and has been Since washed or carried thereinto, b)' the Rains, and Flouds. running upon the Earth; as is visible to our dayly Obser\'ation.// Neither is this all the Inferences, that mav be Drawn from the premises; For seeing it is evident, by the precedent Lines. That before the Waters were thus gathered together, they did constantly, (tho' at first but taint and languidlv) [p. 97] Flow ewer the whole surface of the Earth: And seeing it is but naturall. to conceive, that whilst they did so flow. There could be but little or no inequallity m their Flowing, to Cause the Earth (at first) to ponderate, more one wav. than another; (For the surface of every drop of Water, suspended in the open Air, is visibly, at an equall distance from its Center,) And forasmuch as, especially at every Spring=tide, there was, and is (as is said) 100 The Earth Generated ami Atialinni<:ed more Water brought trom the Poles to the ^quinoctiall, than at other times. And seeing bv the raising ot the Land, the waters were gradually and now are, constantly prevented trom commg equally round the Globe to the ytqumoctiall; as by consulting the following, or any other Map of the world, and Postscript hereunto annexed, will more plainly appear: I say. What may we hence infer. But that this inequallity in the Flowing and Meetting ot the Tides, at the place atoresaid. atter the Land was raised; (tho not before,) must naturally bring the Earth, out ot its j^quilihrity; and thereby cause it to ponderate either from the East, or from the West; in order to Seek another Center, or place of residence. And being thus Set in Motion: We may reasonably inter. That the Diitrnall Rotation of the Earth, was trom thence first produced; and (by the constant repeating ot the same unequall Flowings) is still continued; And consequently trom thence, (to wit,) From this Gradual Rotation of the Earth, the Dayes and Nights; and even, what we now call, time it selt. had its Original! and Denonaination. Which I presume may suftice to shew, how, and when, the irregular, and transparent Veines, and perpendicular Fissures, were made; that we now see remaining in and Between the Rocks and Stones, that are upon, and under [p. 98] the Earths Superticies: As also how, and when, the Earths Rotation was tirst produced. But before we pass, trom the Waters flowing over the whole Surtace of the Earth; to its being fully Drved, and hardned; it is to be Observed, That the great mountains, and some high Tracks ot Land; Must first, (though gradually) be thrust forth, and stand up, (as S'. Peter tells us Chap. 3: V. 5.)"^ m the Waters, and out of the waters: Whilst all the rest of the Earth, was covered over therewith. And seeing Nature is never Idle, we may Well conceive. That when the Earth was in this State, The mucelagenous Water, which remained in Lakes and Ponds, on these higher tracks ot Land, did putrify and Generate, all these Fcwles whose Feet are formed with Fann=likes Claws, to row themselves withall: And that the Land=Fowles, whose Claws are Seperated; were Generated with the Animalls next to be mentioned. And that y'. first, were then Generated is plain. Because, the' they Live on Fish; yet, they could not propagate their Species on the waters only, without some Land to rest upon; as dayly experience confirmeth. Haveing thus shewn some of the Events; that hapned, before, in and upon the gathering together ot the Waters; I shall now proceed to some others, that followed, when the Dry Land more perfectly appeared. The four Quarters of the Earth (viz.') Europe. Asia, Africa, and America, being gradually raised so much higher than the Ocean, as that the Waters, (even at Spring=Tides) could no longer overflow the Land; it had thereby the advantage in process of time, by the Earths internall heat and otherwise, to be so hardned, as to become a fit Stage or habitation, for Such Creatures as God, in [p. 99] his eternall purpose, had designed it should bring forth; (for before its hardening, as twa's untitt for them to tread upon, soe it would be in vain to produce them.) Wherefore the Earth being now hardened, and the hills but as yet buding forth, it is but natural! to conceive; The Eiirlh Gctichtlcil aiiil Aih!tomi:i'il: Text lOi That the mistv Vapours anti Rains (i.e.) the Sweat ot the Earth, that did return and tall thereupon, whilst it was thus almost level, must, (together with the water and Slimy matter that was left upon the Earth by the late (werHowing ot the ocean) unavoidably remain, m the shallow Lakes and Ponds, that were made by the boding torth of the said hills and Mountains, m soe many thousand Miles, ot almost levell Ground: Which said slimy Water, and Rainy Vapours, being then at rest, and void ot Motion, (tho' now the hills are raised it cannot so remain) it must, I say, by reason of this Stagnation (as dayly experience teacheth,) corrupt and putrify; by means whereof, it becames a mucelaginous. Viscous, and Chvle=Like Meuslmuin;^''* Whereupon, (as God had before Commanded the Earth to bring forth Grass, tor the use of Cattle; And the waters to bring torth tish and towles,) so he then further Commanded, Saying, Let the Earth hrinq forth Lii'ing"^ Creatures after their hiiiJe: And it was See. From whence it is evident, that the Bodv ot the earth; from this, its Viscous or Sweaty Menstruum (bv virtue of the Spontanious Nature, intused into Matter, betore or upon the said Command;) Did then, and thereby, naturally engender, and bring torth; First those great Creatures; and afterwards, as the Hills advanced, those lesser Animalls that do now mhabite the same; or at least, what is equall thereunto; (namely) their Several! Species. And that this Sjhvilaiiious nature, tho' but m a lesser degree, is still m all liquid [p. ioo| matter when Putntyed; is evident (among other Arguments that mav be produced) Because he that .said. Let there he Light: and Let the Earth bring forth, tkc. hath not, in either ot these respects reversed his Commands, Nor have the Ettects thereot hitherto ceased; For the first (viz'.) The Light, is Visible, as well on the Surtacc of the Great Waters, (as has before been hinted,) as in the Celestiall Luminaries, to this day: And the Latter also, unless to such as will not see the same: For what is a more evident protf, ot this Spontanious Nature, in all liquid Matter; than that the whole Species, oi Froqgs, Tadpols, Flyes, and divers Sorts ot Insects, are Annually destroyed; and as frequently, generated or produced again; And although this cannot be denyed;'"" Yet I am not unsensible, that the manner ot their production is Variously assigned; For Some will have it. That because all great Fowles are Now produced and propagated, by, and trom, their respective Eggs, alter copulation; Theretore they infer. That the Eggs which are produced by these Insects and Lesser Animalls, in one year, are Hatched and brought to Life, (I suppose bv the sun tor it cannot be by themselves because they are destroyed,) in the year ensuing. Now that all Animalls are multiplyed by their Eggs, I readily grant; For though they were originally, generated without Eggs, or Copulation; yet being grown to maturity, we tinde, that every Vegetable and Animal, has, (as Moses saith) their seed within themselves; or other like means, to propagate their species by; And therefore doubtless, in the summer Seasons, these small Animalls, and insects, do accordingly multiplv their kinde: But though this be soe in respect ot the great Animalls, and also, with respect to the lesser whilst the summer heat remaineth, I p. 101 ] Yet the Inference will not follow, for the re=production of those that are so 102 The Earth Generiitdhviii Aiuitomizt'd small, as to be destroyed, bv their incapacity, to bear the Accidents ot the Wniter; And my reason is Because, If the Eggs of those small Insects; or any other Eggs whatsoever, should be exposed, (as they must then be) to Rain, and Cold; So as the matter therein contained should become frozen; for so many weeks, or Moneths, as the season commonly exposeth them; thev would thereby, be made wholy untitt, to propagate their own Species; Altho we should Suppose them, to remain where they were tirst posited; and not carried into the Rivers; and thence to the Ocean; by the Winter Flouds; as 'tis very probable thev are: Which if these, or either of these accidents should happen; All the severall Species betore mentioned, must totally cease; should they not, (as nature disposeth matter,) be Sponlaniously generated again; as they, and all other Aiiimalls originally were. To conclude therefore, untill it can be fuUv proved. That the Eggs ot tame Fowles, (for others it cannot be so well tryed,) will produce their Species, after they have been so frozen, and exposed as aforesaid: it is but in vain to deny the Spontanious Nature in Matter; or the plastick power, that has been herein so frequently ascribed thereunto: For the very Vermine in the Noses of some persons; and the Various Sorts of Wormes in the Bodyes of others; will plainly Demonstrate the same, by their being therein produced without Eggs, or otherwise from their like Species. I shall not further, at present, enlarge hereupon — only mention one Ohserihilion that I finde no notice taken of; and it is this, |p. ioa| That the £^^5 of all Animals; Do, in a great measure, bear a due proportion, to the Magnitude of the Bodyes from them pruduced: As by the Eggs of an Ostrige. Hen. Bird, &c. (if compared) it may plainly be Discovered and conceived. From whence, by the way, we may be well assured. That the greater Animalls, (as has been frequently hinted,) Were the first that were produced after the Creation:'" Because as the aforesaid Lakes, or Menstruums on the Earth were at the Creation, Largest: so the Magnitude of the Creatures thence produced, were, and (according to the said Observation) must be the Greatest likewise: And as we may thus infer in respect ot the Greater; soe we may on the other hand conceive. That the Lesser Species were generated as the Hills were raised higher: Because the said Lakes, must be thereby gradually diminished; and also put in motion, (which prevents Generation) by being changed into running Springs and Rivers; neither of which could be, when the Earth was almost level; as Reason, and davly Experience teacheth but. What 1 further intend by the said Observation, is to shew, that Persons, (how curious soever in the Works of Nature.) may Err, in things that are even Visible therein; and therefore much more, in such as are drawn from SiijtpositiiVis only; as is that relating to the Insects betore mentioned. And my Instance herein Shall be. That nice Observation, made by the Worthy '" wherein he pretends that the I'lrtiis. (and Consequently that of an Elephant,) is Generated from an Egg, which is no bigger [p. 103 1 than a Grain ot Wheat or Musterd seed. Now that this is inconsistant with The Earth Gencratcii ami Aiuilomized: Text 103 Nature, as well as contrary to the Said Observation, is evident to Sense: For every Naturallist must acknowledge. That the very Forme ot the IJtriailns together with the two= fould matter or menstruum, thereunto, as nature requireth, constantly coveyed, by the Vasa pra-paranthi and Hypogastrick I'eines &c; is the same in its kinde and proportion; with the Shell, White, and Yelk of any Egg whatsoever: And that the internall heat, of Viviparous Animalls, is also ot the same use, in generating any Fatus, in this internall Egg; as the applycated Heat of the Sun, or Fowl, is to the Hatching any of their externall Eggs before mentioned. And therefore unless another diminutive Egg, or Hans 111 A'cWrr,"'' can be found within the common Shell=Eggs; 'tis very probable, the aforesaid Nicky, ought not in this respect to be regarded: For you see 'tis manifest, that the reall Egg, which produceth the Animall, is the Utnculus, and the said Menstruum, thereinto constantly conveyed; and not the Attome before mentioned: And is also that, by the said constant Supply, which beareth the due proportion to the Body thereby produced, according to the Observation before mentioned. And this I hope may Suffice to Shew, That inasmuch as very curious and inquisitive persons, have I presume erred, in things so visible in Nature; they may much more be deceived in the re^prnhiciion of the Insects &c: before mentioned. And being now Speaking of these things it may perhaps be Enquired. First, Why Trees, and other Vegetables are produced, but in the Mak-kimk only;''" without any Female, to multiply their Species by, as Animalls [p. 104] have: And Secondly Why most four Footed Beasts, and other Animalls; have each of them, but onlv one comon Shell or Egg, (respectively) to multiply their Species in; Wherehas most Fowles have many Eggs, to propagate theirs. As to the/im of these I breifly Answear; That these Vegetables, (tho they are generaly of the male kinde, ) yet they have no need of any such Female to propagate their Species with: For when their seeds are fallen upon the Earth; The Earth is then of the same use to them; as the shell and heat of the Female, is to the Eggs of an Aium.dl: And the rainy Vapours which fall on the Earth, are also (when putrified and turned into Leffas,)''' of the Same use as the Menstruum contavned in anv of the Eggs before mentioned is to the Animals thereby produced. And lastly, the Roots of these Vegetables are likewise of the same use to them, as the Umbilicum is to all Animalls; For thereby the said rainny Vapoures are, not only at first, but also constantly conveyed; for the Nourishment and increase, of their respective Bodyes: Whereas all Animalls, are so Nourished, but only whilst they are in their respective Shells, or Vtriculi; and being from thence seperated; they are allwayes Receiving & carrying the like facticious Earth, and Water, (tho' more feculent in its kinde) about with them; m their Bowells, and other internall parts; as well for their Sustentation, as for their procreation. And tor the Second Enquiry (viz.t) Why most four footed Creatures, and others, have respectively but one comon Egg or Utnculus, and Fowles so many; Is because the 104 ^''^ Earth Generated and Analcmi: ed Fretus's ot the hrst are very large; And seeing they must all ot them be hatched or brought to Maturity, within their Bodyes; it will necessarily follow. That if they should be [p. 105] so numerous, as the Fowles are; it would be naturallv impossible for their Bodyes to Conteyn them; And therefore providence has accordmgly dmiinished their Number: and not only So, but hath also proportioned the Lenth, or Shortness, of their Lives, according to the production, of their Severall Species. And hence it is. That those large Creatures, are not only 9. 10. or 18 Moneths, m hatchmg their young; (if we may so call it) But when produced, many of them Lives to the Age of 30. 40. or 100 years; Whereas manv Fowles, do hatch their Yoimg, in a few Weeks, or Dayes; and when brought forth they Live not perhaps, one hfth, or one tenth, ot the Age before mentioned; and therefore, as is said, their productions are so much ther fore more quick and Numerous; to the end their Species might be thereby preserved. And accordingly it happeneth Annually, with respect to the multitude of Gnatts, and other Small Insects, vi'hose Age, manv times is but tor a few Moneths. or daves; and their production doubtless, in as tew Howres. But seeing we have in the Precedent Lines, allowed almost all Creatures, to be multiplyed by their Seeds; it may be objected, that some Vegetables; as the I Itie. Elem-tree, Fern.'-' &c have no Seeds, to multiply their Species by. To which I answear. That such as are not there^with accomadated, do commonly, propagate themselves by their Branches or their Roots; as I suppose these before mentioned naturallv do; But tho it be So, with respect to these, and such like; Yet I presume, the reason why Some Vegetables, do not in some Contrys, produce seed; is only for want of an hotter Clymett, to bring them to maturity For it is evident, that not only divers sorts of Vegetables here; but also the wild or fruitless Oran^e^tree, in Polonia: and (p. 106] also some Animalls, as Snails &c: do plentifully multiply their Species by seeding and by Copulation; in extream hot and Dry Sumers; which in hot, and wet ones: (viz.t) when y'. Earth Spontaniously produceth them, they do not So propagate themselves; Nor can we but rarely tinde, and such Actions, or productions, by, or amongst them. From whence we may learn. That it the Earth, could have continued, in its primitive fertility; There would not have been, (nor needed) a Male and Female, or any other means, to propagate the Severall Species, that the Earth, at first produced; but the said Spontanious nature only, and Secondly, That if the said Fruitless, or Seedless Orange=tree, or a plant of Fern: or any other such seedless Body: that dos live, or propagate it selfe, under the Earth, tho' it be but as it were a lifeless Excresence thereof; I say it any such, were removed into an Hotter Climet; and therein gradually, and naturallv cherished (and not abused hy heat.) with the proper l.effas. that its Mother the Earth, to them respectively aforded; it would doubtless, as the [lieat) or the Sumer approacheth, be so brought to Maturity, as to yeild such seed, as would multiply its own Species: Specially if the said seed should be in like manner sown again, in the same, or alike Menstruum, wherein the plant. The Earth Geiicraled and Analomi^fil: Test 105 Excresence, or Miitcrall, was at first, ripened, and brought to maturity, as before proposed. We might further enlarge hereupon, but I only speak this as an intimation to some persons and return, to the Earth's generating, the Great Animalls before mentioned. And altho, we have already shewn, why the Earth's Productions were more numerous and copious, soon after the Creation; than at this Day; Yet for the further Explication thereof we will Suppose, it may be thus Enquired. I p. 107] Seeing the Earth did at first Spontaniously bring forth such great Creatures; as the Eli'phiVU. Camel Horse, Sheej'. &c. And seeing she dos now, by such means, bring forth only lesser Animalls; as Frogi^s, Wormes, similes, Flys, ike. (sometimes) without Copolation: How comes it to pass, or for what reason, is She become more deficient therein, than She was, at her first forming. To this, I Answear, that there are, as we at first Asserted, only two things in Nature, required for the Generating, or producting all Animated or Vegetated Bodyes; (Namely) Moisture or Water, and Motion or heat; And as a greater or Lesser Quantity or degree of both these are harmoniously joyned together; the Bodyes thereby produced, are accordingly either greater, or lesser: Inasmuch therefore as the Earth, in the time of its forming, was furnished, as has been shewn, with a greater quantity of Water, (which in putrifying must naturally produce an Heat proportionable thereunto,) than it now affordeth; it will from thence necessarily follow, that she had then, in both respects, greater Advantages conducing to such productions, than it now has: And therefore the want thereof must be the Cause, of the Earth's present Deficiency. But you will say there's Water enough in the Ocean, and Why is not that, soe productive, as to Generate Whales, Porpices, Salmons, &c. without Spawning or i^quivocall Generation, seeing it did so, when the Superficies of the Earth was all fluid. To this, I Answer, That it is because, the Nature of yl Waters of the Ocean, is now changed; For when those Fishes were first Generated, it was then, as is shewn at the tenth Pustulatwn , of an incipid or fresh, indijested nature; [p. 108) But now 'tis throughly Animated; it is so far from generating; as that by its Saline Quality, now acquired (together with its constant Motion,) it even preserveth things from putrefaction; and thereby preventeth Generathion; as dayly experience teacheth; And that Matter is so changed, in its being animated, is evident in that the Miscelanious Menstruum, of the Stomack, is first converted into Chyle, and thence into the Bloud, which being put in Motion is thereby prevented from putrefaction and Generation, from Whence it is plain, and evident, that the Ocean, being converted and Animated as aforesaid; cannot further any such Generation; other than by the Serous Sublimations or Exhalations thence arising: For nothing but a Chaos or Caotick matter; (as was at first Asserted,) can generate a Living Body; And therefore, no Living part of the Body of the Earth, of which the salt Ocean is one, can conduce thereunto; as being jQg Thf Earth Generated ami Anatomized now, noe Caotick matter: Whatsoever is dissected, or Sepcrated, by Exhalation, Subhmation, or otherwise, /Knii a Liveing Body; is the proper Subject or matter, for Generation. And hence it is that the Sweat or Vapours of the Earth (i.e.) Rain; as also the Raves or Vapours of the sun, mingled with those of the Earth; or the Sweat of any other Aniinall; or anv other matter mortifyed, or dissected; as the Earth is by ploughing, or otherwise Seperated /Kkm a Body; as the Slimy water before mentioned was; (being then in its Caotick State) I say, these, and such like, and no other, are the only proper Subjects or matter, for generating living Bodyes; on the Earth, in the Water, or on the Bodves of any Ammalls whatsoever: And this is manifest, because. That as the abundant Heat and Moisture of the Earth, did first produce greater Animals: so the heat and moisture, of the same Animals; do produce lesser (namely, pedicular) Ammalls to this Day. [p. 109] From what has been said, we may plainly perceive. First, That the Great Quantity of Water lying uninterrupted, and thereby putrifying, on the Surface of the Earth, (being also joyned with the luvemal heat thereof) had then and thereby, the advantage and power, to bring forth those great and divers kindes of Ammalls; which now, by reason of the raising of the Hills, and thereby the Speedv tuning off of the Said Caotick Water, it can in no wise bring ionh; but in a much Smaller Species: And truly, although the Elpluvii. Rlunocenis. &c. are very Large Creatures, compared with others; Yet if we compare them, with that Vastly great Animall the Earth, which first produced them; And then compute the magnitude of the sheep-tickr, and other pedicular Creatures and intemall Vermin, with the Ammalls bv Which they are produced; We may have cause to Admire, That the Elephant. Camel, Sheep. &c. were not many Thousand times bigger than they are. But the reason thereof is not difficult to determine, if we consider the Heat and Sweat of the Earth; For we finde the Atmosphers of some of those comparitivly, little Creatures, to be 40, 50, and some 100. times greater in proportion, than that of the Earth is. And in the Seavtd place we may learn. That as the Earth did, and dos to this day, produce all Vegetables, but of the male kinde only; so if the Adamick Menstruum, which produced, the said Ammalls. had been intended to remain alwaNs upon the Earth, in the same prolifick State; it would then have produced them, ot neither Cieuder. For as Nature never made any Thing in Vain; so it never ordains, fico effectual! [p. no] Means, for one and the Same End: But the all-knowing God; foreseeing. That the raising the hills, would prevent such productions; Did therefore Cause the Earth, to produce the Severall Species of Animalls; as well m the Female, as in the Masculine Gender; (tho' the latter first,) to the End the like Menslruiinis might, (between them.) be perpetuated; untill the f'mall Desolution of all Things; iir at least, till the Earth dos cease to send forth its Rainy Sweat; for the Production of Vegetables for the use and Subsistance of such Animalls. Now the manner of Generating and Nourishing those great and lesser Creatures, was at first, doubtless the same, with what we now fmde in generating other Animalls The F.artli Gciicritlfd aiul Aihitoini^a^: Text 107 by .-Eiyi/ii'('ui// gcneratiim to this Dav: (viz.') The abovcsaid Heat, being EngenJered 111 the putritved Mciislniiiiii. or liquid matter, lying in Ponds or Lakes on the Earths Supticies, and giving motion thereunto, as is before observed in the hatching Oviparous Creatures; It began to torme or generate the Heart, and therewith the Body and members; and by the f huhilicall Veins, (as experience tells us, all oviparous, and other Animalls have;) it administred and conveyed, the atoresaid Chylous Water of the Earth, wherein the\' were generated, tor their increase and Nourishment; (tor that alone is the Mentruum, which produceth the Body; and the Earth but the Matrix; as is evident in the Maturating, the Seed of all Vegetables.) untill they were grown to such Maturity, as to break ott, the said Umbilical continement; And being then, and thereupon, capacitated tor LoatI motion, they frequently returned to their respective Menstruous Lakes, to Suck (or drink,) thereof; Untill they, (to wit) The Horse, Cow, Sheep, tkc. could Sufficiently feed on Grass, which God had before commanded to be brought forth, tor their use, or Sustentation; After [p. 111] which the Lyons, Beiires, Eagles &:c. were brought to maturity and capacitated to pursue, and take their prey; as being First, brought forth for them; and so of the Lesser Species in their order, for there was then, no other Damm to give them Suck; and therefore they must be nourished (as well as produced) in the order, and manner atoresaid; And, (as has been hinted,) we may also from thence, reasonably conclude. That the Beasts of Prey, were the last Creatures, that were produced; (respect being had to the magnitude of their Severall species:) For as the greater Animalls, of what Species Soever, were generated when the Earth was almost level; So were the lesser, proportionably, as the Hills, were raising; only Man exxepted, unto whose Wisdome or Authority and for whose Subsistance, the greater, as well as the Lesser of every Species, were, and are Subjected, & made a Prey. And seeing it is, by the precedent lines, made evident. That the Earth was almost Level when the great Animalls were generated; And that the hills and Mountains, that we now see thereupon, were raised afterwards; (as by the following lines will more fully appear,) we may from hence mferr; That those thinn Stones, or Slates, that are now posited in any hill, how Steep Soever; Did (then, (to wit) when the said Animalls were Generated, and the hills not raised,) all of them lay Levell and parelell to the Horizon; as is discribed in Fig; the T; and 8;'''' From whence we have this as a Corollary, (namely) That if we should be required; to take any such stone or Slate; (though its position whilst in, (or out of) such a Steep hill, should now make an Angle with the Horizon, of 20. or 30. Degrees, more or [p. 112] Less.) Yet I say should we be required to take, any such flatt Stone, and put it in the Same, position, as it was two or three Dayes, before Adam was Created; it is but to place it parelell to the Horizon, and it will then be posited again; in the same position, as it was, so many thousand years Ago:'''' And this is evident, because the Bedds of Earth and Rocks; were at first, all of them Horizontally Levell, as before Asserted. Haveing, by the way, made this Observation, I pass on, to the raising of the Hills & Mountains Now Visible on the Earths Superficies. io8 The Earth Generated and Anatomized God Omnipotent bv his previous quallifying of Matter having thus farr, formed the Earth; and replenished it, with Vanetv of Ve(;eiahles, and Aiiiiiuills: and by his Omnicience fore=knowing the Effects that would ensue; it the hnn Quarters of the Earth, should continue in their prestine Smoothness, and fertility; Did therefore cause the internall Animateing heat and Motion, within the Earth, after it was hardned, (as the matter of the Egg must be before the Leggs, Wings, Bones ike. can hud ionh;) graduallv to raise up, and proturbate, these numerous Hills and Mountains, wherewith it is now, almost generally Bestudded, and htdented: Which being fully Effected, the Earth was thereby compleatly Formed; and its Animation wholy Accomplished: And hereupon it was. That the Waters were generallv gathered together, and the Drv Land appeared; ^i Moses has, most Philosophically, and as elegantly, expressed the same. Now that those Hills and Mountains may not be esteemed needless, or (as a Worthv Person, in his Theory of the Earth,'-' lately deemed it;) a Deformity, or an accidentall chance; I will therefore presume, tho' it has been already [p. 113] hinted, to give a Reason for the necessity thereof. For if the Hairs of our Heads, are all numbered; and a Sparrow cannot fall to the Ground; without our Heavenly Fathers pleasure; surelv much less, can the least of those Hills or mountains, be raised; without the like providentiall appointment. God has not made any thing in Vain; But if we cannot sec the Cause: 'tis most certainly ours, but not the makers ignorance; One Naturall Reason therefore, Whv the Hills were raised. Was because the God of Nature, foreknowing That the heat of the sun, and the internall Heat of the Earth, would constantly cause a Respiration of its humidity, as all other Animalls in sweating do; and that. That Humidity, by not returning to the Ocean, (as our blood to the heart, to be kept in Motion,) would therefore continue, to Exert its plastick faculty; in Generating, and forming such great Creatures, as were at first brought forth; so that in process of time, by the Continuall Generation, and putrefaction, (or rotting) of these great bodys; both Vegetable and Animal; the Land part would have been Increased, and the Sea, by the not returning of the said Exhalations, (or rather Respirations,) so diminished, as to be turned into a fixed Salt; whereupon its motion would totally cease; and an unavoidable destruction thereupon ensue. To prevent which the Hills and Mountains of the Earth; were, as is said, bv the internal Energie of its plastick or Sclt^forming power, gradually thrust forth, and raised up; as naturall as the Biidds, Limbs, and Knots, are thrust fc^rth in anv liveing Tree, or other Vegetable or Animall whatsoever; That thereby, through the Vallys, the said Exhalations, might fmde a more facile, and expedite passage, to return to the Ocean, to be therewith kept in Motion; and the said Fatal Consequences thereby prevented, [p. 1 14) For doubtless, if the Waters of this Globe or Earth, should Sustain such a Stagnation; or the Earth be any way deprived of its pulsation, and thereby, of its Diurnall Motion; (Seeing they depend upon each other) it would thereupon precipitate towards the Sim, and by it be sett on Fire, in like manner as we saw, it happned to the Great Commet that appeared in 16S0.'-" Whose brush of inisty Raies, or Vapours, (arising from its Calcination,) did, to appearance, when setting. The Earth Generated and Aiuitomized: Text 109 extend to at least, forty degrees in height above the Horizon; And doubtless, whensoever the generall Conflagration mentioned in Malachi 4:'^' shall be accom- phshed; (If it be not miraculously effected,) it must be, by such means, as we have now described.'-" And that this encreasing the Land, and diminishing the Sea; by the means aforesaid, is no groundless Supposition, will appear even to a visible Demonstration (namely) because the Earths Surface, is generally to the debth of 2. or 3. Foot more or Less, covered over, with a kinde ot Black or other coloured Garden^^hke Mould, though it be Rocks, Cley, and other different matter immediately under it: Whereas the four terreane parts of the Earth were raised, by transposing or emtying its Marine Parts thereupon; And therefore it cannot be supposed, nor is it found by experience, That the Bottome of the sea did, or dos, consist of, or could afford, such sort of Mould to cover its Superficies withall: And therefore it must be otherwise acquired, which we conceive was in this wise, (vizt) The Earth being at first covered over, in some parts, with such matter as produced Cley; which in drying Crackled into small peices, and were afterwards hardned into Stones; In other parts, with such matter as is now become sand, and Gravell; a Third Flint, Pebles, &c. [p. 115] I say the Earth being at first thus formed, and, as has been shewn, also covered over with divers Lakes and ponds of Water, which then plentifully produced divers sorts of large Vegetables and Animalls; who liveing but for a Time, and so decaying; were afterwards rotted and turned into such Mould iir Earth as is before decribed: and by its soe plentifully doeing at first, and still continuing, (though in a much lesser degree) in generating and decaying; for so many thousand years;'^' the said mould is thereby increased, to the debth of 2. or 3. foot as we now behold it. And that it was bv this means Increased, is further evident, not only because to this day, the more fertile the Ground, the thicker the mould: But also, in that the Grass, Corne, Wood, Bones, shells, &c; (all which, is but only Water fixed.) that is produced, in one year, by the said Serous Vapours ot the Earth and exhalations ot the Ocean, (of which who knows how many Ton is required to make one Ton of Timber;) is not, or naturally cannot, in the same year be rotted and turned again into its originall fBuidity; without which, it cannott return again to the Ocean, from whence it dos constantly proceed: And therefore. Whatsoever was or is, Anually left remaining; either of Animalls, or Vegetables; did, and do, still encrease the Debth of the Earths surface in manner aforesaid. Whence we may well conceive, that the Cause, why the Hills were raised, was to hasten the returning of the Water; to the End it might be prevented from being embodyed. into such large Creatures, as would have encreased the Earth and diminished the Ocean, even to such [p. 1 16] a Degree, as would have exposed it, and us. to the destructive consequences before mentioned, and. Havcing now hinted, that the waters do originally proceed from the sea, it is to be observed. That many have affirmed,"" That the Springs and Rivers are produced, by means of the Waters passing from the Ocean, through the Earth; And Not bv the 1 10 Thr Earth Generated ami Arialiimiseti Clouds, and Rains, falling thereupon. Which Doctrine I conceive to be inconsistent with Reason and Experience; For, as the Wise man aftirmeth and our Experience teacheth; till the Rivers run into the Sea: Therefore their Springs (S^ Hountains must needs be higher than the Ocean is, whereinto the Rivers disgorge themselves; or otherwise they could not desend and fall thereinto: And inasmuch as it is manifest, that water cannot raise its self, above an horizontal! position; and the spring head, must, as is said, be higher than such a position; the sea can by no naturall means, be the Author thereof, otherwise then by affording its Respirations, or Raine, to fall upon the Earth as aforesaid. Nay, I would desire the wisest Pholosopher, or Naturallist; to Shew a Reason, wh\' the Waters of the Sea mav not more easily run to the head of the spring, by the open mouth of the River; than to press thro the Pores of the Eearth; and unnaturally raise its self, above its Horizontall Levell; that thereby it might be capacitated, as is falsely pretended, to return again to the Ocean; I could further confute this Doctrine but a Word to the Wise is sufficient. It being in the foregoeing lines made evident that the Earth was hardened into stones &:c. before the Hills were raised, and the Cause of their raising being likewise declared. |p. 117] We now come to Speake of the Time, that (according to probabillity may naturally, be required or spent in forming the Earth; And herein it is to be observed. That an Aniimill (the largest whereof, is but as an Attome, if compared with the Earth) is not, out of a lifeless liquid matter, converted into a Liveing Body, in an histant; but in some measure, a Time proportionable to its Magnitude is required, for its Generation; as some of lesser kinde in one Month; some of greater in eleven, and the Elephant in eighteen; so neither must we imagine. That this vast body of the Earth, consisting of 21600. Miles in Circumference, could, according to the course of Nature (which is the only means that we doe herein pursue, and not the power of the Creator,) be thus converted from a soft tiuid Substance into hard Rocks, Cley, sands, &'c. in a Moment: but that some natural! proportion of Time, according to its Magnitude, might be thereunto required.'^' For if soe small a Creature as an Horse, Cow, &'c. dos, as IS said, require almost one year for its forming and hardening into Bones &c: surely the Earth which is soe many Thousand tunes greater, might probably require what is now equal! to many Years for its forming; And tlierefore the Words of Moses, when he speake of the six dayes Labour, must (as I humbly conceive) be understood as when parts, passions, and Members are ascribed, to the Creator of all Things; (viz:") but only to Sute or adapt Things, to the weak capacity of humane understanding: For seeing it is evident from the Words of sacred Scripture, That a Thousand years with the Lord,'^^ are but as one Day, [p. 1 18] why may not the first four Dayes, (to wit) until! the Sun and Moon were made; (see Gene: i. V. 16.)'" or till the dry Land appeared, and the Earth attained its Diurnal! Rotation; or at least whilest the Light was produced by the spirit of Clod moveitig upon the face of the Waters: 1 say, why may not one such day, be ei]ua!l to many years: For seeing, as has and will be Tlic F.itrtli Cetifrjtid ivul Aihitoini:t,l ill shewn, The Rotation ot the Earth, is caused bv the Disparity in the Flowing ol the Ocean, And inasmuch, as whilset the Earth was all Fluid, (to wit) till the four Quarters were raised, there could be no such inequallity, or Disparity in its Flowing; And therefore no Rotation; and Consequently no measure of time: (Because tluit. is measured only bv the Earths Rotation,) From all which, I say it is very probable. That the hrst Three DaNx's, might at least be many hundred times Longer than now they are; Therefore &c; And this sloic, or uwit of Motion in the Earth, will in some measure appear, from the Motion mention in the said Egg; which at hrst is so languid, as to be Scarce discernable: Nor is there a perfect Locall Motion attained; untill the Bodv is as it were, Maturelv Generated; But that which makes it further evident is from the great Oyster shells, and others. That are found immassed in the Rocks; which though they doe naturally require several! years to attaine such largeness;"" yet they must be fully grown whilest the Earth was generating; or otherwise, they could not be incorporated therewith, & immassed in the Rocks as aforesaid; And, (which is more,) The Fishes that were in the Shells, at the forming ot the Earth, must be quite Rotted, before the thin, cleyish, Stoiicy. and Mcttallkk Matter could enter into the shells to fill up the Cavity wherein the Fish formerly lived; (thereby makeing the [p. 1 19] Forme of the said Fishes, of perfect stone &c:) as we now plentifully finde them: And how Long Time such rotting (or as it were annihilating) would naturally require, when soe covered from the Air, Who is he that can determine? Nevertheless, seeing the truth of what I have, (m Generall) advanced, dos not depend upon this particular; I leave the reader to judge thereof as he pleaseth: Now if the Earth, was, as is verv probable, many hundred years (or rather what was equall thereunto) before it was fully formed: And inasmuch as all great Animalls were generated before the Hills were raised, (tho' not before the four Quarters of the Earth, were raised some what higher than the Ocean, as before is shewn;) It will necessarily follow. That whilest the hills & Mountains were i^radiially buding forth, (for Nature abhorreth Violence) there must be in that long space of time, a very plentifull hicrease of Land Animalls and Vegetables, (as well by Copulation and seed, as otherwise;) as we finde by the Rocks Ike. there were of fish=animalls before the four Quarters of the Earth were raised; Which being granted; we may easily learn, that the Bones and Trees, that are yet to be found buried and mingled with the Earth, (tho' not immassed therein; because they were not brought forth till after the Earth was hardened,) were such bones, and Trees, as happened to grow or stand upon the Edges of the Hills, at the Time when they were almost or fully lifted up; Which Hills being raised to such an height; as some of them to make an Angle with the Horizon of 50. or 60. degrees in Altitude; I say for such Hills as were soe very high raised, some part of them, when come up to such an height must unavoidably tumble down; and haveing then Trees, or Animalls, standing thereupon, (tho the Trees stood perpendicular before the falling of the Hills) must of necessity fall down with them, and be buried; with whatsoever Rocks or Rubbish, did accompany the same; as the Trees &c: standing on 112 The Earth Generated and Anaicmized the hill at A.C. Fig: 3'"-' do plainly intimate. And that the Rocks, and Earth, did thus tumble down, you may sec Visibly manifested, (as you Ride [p. 120] on the Rodes) in almost all Steep hills whatsoever, which I desire may be accordingly Noted: For at that End Which the Ranges or Strata's cuts the surface, (as at A.C.) the Rocks (!V Rubbish, that have so fallen, do in many places, yet remain in that tallen, or irregular position, to this day, though the strata's in the remaining part ot the Hills are still exactly parellel to each other, as before described. And for further Confirmation, That the Earth was not replenished with the larger sort of Animalls and Vegetables, untill after the Matter was hardened and fit to be raised into hills, as has before been shewn, is evident from this Phivnotnena in Nature; namely. That notwithstanding there are, as is said, such plentitull Numbers of shells, immassed in the midst of those vast Rocks; yet we can rarely tinde, any such Trees or Animalls incorporated in them in such manner as the Fishes are; Whence 'tis plain, that these Trees and Land Animalls must be generated after the Rocks were hardened: And Consequently were tumbled down by the raising of the Hills as aforesaid; or otherwise they could not be found, only mingled with the Rubbish, that fell from thence, and not incorporated in the Rocks as the Fish shells are. and. As for the Manner how the said Land Animalls, and Vegetables were preserved; It must either be, from their being covered up in the said Rubish, and soe allwayes kept in one State of Moisture; or else, their sap being exhausted, the then petryfving humidity of the Earth, filling their pares, preserved them, by converting them into a Stoney Substance: And for the Confirmation hereof, we have an histance of the first. Way of preserving them, at the Bottome of a very steep Hill near Shaston in Dorsetshire,''"' where I lately saw severall Trees that were digged out of the ground, adjovning to the Foot of such a steep Hill, (one whereof was 20. or 30. Foot long, and about a Foot Diameter, which doubtless was [p. 121] tumbled down and preserved, by being covered over some depth under the Earth, as was before proposed; And of the Second sort {luimely) Petrafied W'lioJ,'" may be seen in severall places in this Kingdonie, in particular amongst the Curiosities of Grasham Collage: And doubtless in this manner especially by the first were the Bones of Animalls, (being of equall or greater duration) likewise burved and preserved. Having thus given you my Thoughts concerning the forming of the Earth, and how the Shell=Fishes and other Animalls, and Vegetables, were produced therefrom, and involued and preserved therein, I now come to Speake a word or two concerning the DELUGE'^' of Water that was brought upon the Earth, in the Dayes oiNcah: And herein you may observe, that I have wholly exxluded, that Flood, from haveing any share, in bringing the said shells into, or upon the Earth; and that notwithstanding the Opinion of many learned, and otherwise ingenuous persons to the contrary; who I perceive finding the shells in and upon the Earth; and haveing been told, either by Philosophers or common Fame; that the Said Ueluge brought them thereupon; have The Eiuth Geiu'ra(cii ,iiid AihUomi:eii: Text 113 therefore taken the same ior Truth; And to Reconcile their observations to the said Report, or to their own Opinions; have Rack'd their Braines, and as it were unhinged Nature; to make the said Flood the naturall Cause thereof: But if because there are shells found in, and upon the Earth; and only because common report tells us, that the Flood brought them thereupon; when the Sacred Writings, are silent therein; and Nature, and Reason, will not adniitt thereof: I say it we must believe it, only because it is see reported; we may as well be imposed upon to beleive the fabulous Stones ot a Generation ol Faries, and their circular Danceings: For as we have shells found in and upon the Earth; soe we have likewise green Circles, frequently found in the [p. 122] Grass, which common Report, tells us were made by the Foot Steps ot that pretended Generation. Whereas it we examine into the Cause thereof, we shall finde (If it were but onlv bv cutting up a Turt, in the said Circle) that their onginiall, is not from the footsteps of those or anv other Creatures. And not only from thence but inasmuch as the Cause thereof has been otherwise fully accounted for, by D; P/iUf'" and some others, we may therefore reasonably conclude. That the very being and pretended footsteeps of such a Generation, was at first, only a Poeticall or Fabulous Invention; and perhaps designedly continued, by the popish Priests, before the Reformation (for since tis not generally believed, tho' the Circles are as common as before;) to amuse the Vulgar; That thereby, they might carry on their Cheats with the greater security: fforasmuch therefore as this common saying, was Certainly Entertained, through Ignorance, and too much credulity; soe the opinion ot the Antient, and modern Philosophers, concerning the time when the shells were incorporated, did in like manner proceed from a like credulity; or at least, from the want of a due Examination into the Reason ot their being posited, as before Described. But tho' I disallow the Flood to bring the shells &c. into the Rocks, and the very being ot such a people; Yet I would not have it thence inferrd, that I disbelieve the being ot such a Deluge, as might Destroy the Inhabitants of the Earth; it being not my Intention to disallow thereof, or to intermedle therein: What I chiefly contend for is this, (viz') That the waters of the Deluge, if they were what we now call waters, could not naturally, (for we pursue no other means) at that Time, nor at any other, dissolve the Rocks and Mountains ot the Earth, and mingle and immass the shells thereinto, as we now tmde them; notwithstanding it is so generally allowed by others, and that [p. 123] for these further Reasons following, amongst others that may be offered. First. Because if so. The water must then, be much stronger, and more Corrosive in its nature, than Aqua fortis or anv other Liquor, of what nature or kinde soever,; For otherwise it could not have such an Effect, as to dissolve the Rocks c\ Mountains as is Vulgarly Supposed."" Secondly!. If the waters at the I3eluge, were of such a nature. Then the whole Species of Fishes, how large soever, must unavoidably have been thereby totally destroyed: And forasmuch as no Whales, nor other Fishes, were preserved in the Ark; There must 1 14 The Earth Generateii atiJ Athiloini::fJ have been, If not a new Creation ot them, at least a new plastick Nature, iir forming power, infused into the waters; or otherwise it could not have produced the Variety of Fishes that we now Finde living in the Ocean, and Thirdly If the waters did then so dissolve the Rocks and Mountains; there could have been no Mountain standing at the Deluge, for the Ark to rest upon; as we finde there was, even whilest the waters were upon the Earth: see Gene: 8:' V. 4.''" and Fourthly. It may be thus argued; iV Either it u\is. in the nature of Water,") or 2'?'' It was not in the nature of Water, to dissolve the Rocks and mountains of the Earth. \(thefirst, then tis no less than a Miracle, that they were not dissolved a Thousand years before the Floud: or else some Thousand years since: As also that they are not so dissolved, at this very Instant, and, If the second. Then tis as great a Miracle. That thev should (as is pretended) be thereby Dissolved, at the time of the [p. 124] Deluge. But that they were not Dissolved, before the Floud; Nor at any Time Since; Is not, nor cannot be denved. And That thev were not Dissolved, in the Floud is Evident from the third Proposition beforcgocing. H'lierefore the said Rocks, and Mountains; have not, either Naturallv or Miracuously, been Dissolved, ever since they were first hardened iii.dt. and after the Creation.'''^ And therefore the shells could not be admitted thereinto, at the Deluge, or at any other time. But only before the Earth was hardened, as is before described and Asserted: I shall not further enlarge hereupon, other than Appeal to the impartial! Reader, Whether from what is contained in the foregoeing Lines, it be not more Reasonable, and Naturall, to conclude. That the Earth was Generated from an Aquous fluid matter, and thence hardened, into Rocks, sand. Cley, &:c; and the mountaines raised after it was soe hardened: And That the shells were immassed or incorporated in the Rocks, at the Geneating of the Earth, when the matter was soft and tender; and no Mountains raised; as is before Asserted: Than it is to allow it to be done after the Earth was hardened (to wit) at the time of the Deluge: which must leade us into so many improbable Consequences, and unavoidable Absurdities. Having thus shewn, how the Earth was from a fluid matter formed, and converted into a Living Animall: and how the shells were brought thereupon, and immassed therein; as also hinted at the naturall Cause, of the Ebbing and Flowing of the ocean, Hoiv and when, the Mountaines were raisetl, &c. I shall at present conclude, with this one Theologicall Use, drawn from the premises (viz.') There are, as in times past, many who say, (at least,) in their Hearts, Tliere is no God; Psa; 14 V. i.,'"^ That the Earth, was not Created, nor had any beginning; but was ever the same as it now is, and will soe [p. 125] continue, even to all Eternity.'" The Earth GencratCii ami Analonu::eii: Text 1 15 Now altho what is before delivered is sufficient to prove. That the Earth had a beginning, and is Therefore not eternall; yet for the further Conhrmation thereof, I will endeavor to prove the same, by puttnig my Argument, into this Sylhi(;isiiic. Whatsoever was, or is, from Eterniiy, or had no beginning; was or is, eternally the same, without the least Variableness, or changing whatsoever; either in Nature, forme, or substance. But the Earth was once, a smooth, soft fluui matter; and is now converted or changed; into harii Rocks, stones, sand. Mountains, Hills, &c. Ergo; the Earth was not from Eternity. The Major, being undeniable, and the Minor, demonstrable; even to I'isihilit}', (from the fish=shells &c. being immassed in the Rocks as aforesaid,) The Conclusion must be unavoidably granted. Wherefore, to that Eternall Existence, that Created, commanded, or brought forth Matter, out of nothing; and also infused thereinto its plastick, or selt=forming power; and thereby Generated or made, not only this Globe of Earth, but even the whole Vnii'erse, and all Things therein contained; be Glory, Honour, and Adoration, for ever and ever. Amen.// Finis: 1 16 The Earth Generated and Anatomized (.)[,26| A Postscript Shewing the two places where the Tvdes are originalv moved, and where they meet; as also the maiier ot their Flowing. Tis almost ten years Since I composed what is generaly contained in the foregoing Treatise:'''^ and although I was well assured from observations and reason, before I entred thereupon, y' y" waters in y'' Ocean were made to Ebb & Flow, by being lifted up, in some certain place or places thereof, as is before Asserted, & not by any Lunar Attraction or Pressure Whatsoever: vet when I came to treat of the Said places [ic/ktc] they might be So moved; I then found, That that Discovery could not be attained, unless a Generall Account of the Setting of the Tides, in the Severall parts of the Ocean, could be pr(5cured; w'.'' I then dispaired ot; 6.; therefore proceeded to y'. other Sections; Leaving v' sd place or places, where %' waters were moved undetermined, and y' whole, in that respect. Imperfect; Tho' since I have Conformed it, as Occasion required, to y' following Discovery, But notwithstanding I then, as is said, thought it Unattainable; yet I frequently wished & Endeavoured, for Such a Rei^ister: And y" rather, because during all this hitervale I could never see any Phivnomena in y'' Tides; Nor any Character imprinted by nature in y' earth; but w' Ecco'd to & Confirmed, w'. I had conceived thereof, & is before delivered; Now haveing, I say, thus Endeavoured. I accordingly. Some few months Since, met w''' a large Folio, entitled y"' Lightning Collumne or Sea Mirour; Printed [p. 127] at Amsterdam Anno Doiii; 1701.''"' In which I found a full account of the Setting of the Tides, tor almost all the Sea Coasts, in the Westren or Atlantick ocean and North Sea, plainly entreed and Recorded: Which Volumn you will find to be industriously compiled, from the Observations and Experince of Divers Mariners; (especially of the Dutch.) as they had in many Ages, in their Severall Voyages entred the Same. But when I came to read these Various Accounts: I still found a great Difficulty m this Enquiry; For although they were plain and perfect; Yet were they so numerous and promiscuously placed, as that it was imposible to forme or concive, anv Canonical or Regular Idea, ot their (.General Setting, by the bare reading Thereof: Because as fast as we Read of their Setting on one Coast, those of the others, would be either forgotten; or at Least become confused. Whereupon after some thought and Reasonings on these Difficulties, I conceived there might be some Device to Supply the Said Defects; and in Order thereunto, I prepared a Large Mapp of the World,''" of which this annexed is a Compendium, whose By=Section I made under the Meridan of Natal in Africa; and placed the Continents, in respect of Longitude, according to M': Afc/V^" and others, late I^iscoveries; as conceiving Such a By=Section most proper for Exhibiting the Marine parts of the Earth: And when I had thus done, I look the said Volumn, and what was incertcd therein. Thr Eiirlh Gi'mrttltil iiiiil Athttomized: Text 1 17 Relating tn the Course or Setting ot the Tides, I forthwith Dehneated, and entred into the said Mapp, by only placing the Characters ot small Arrows, with their heads pointing which way, and on what point of the Compass the Flouds do sett, on the Several Coasts, as fast as I read them: Whereupon I had by means ot the said Arrows, at one View, or cast of the Eye [p. 128] whatsoever was contained in the whole Volumn, relating as aforesaid, plainly represented and Described. And haveing thus Succesfully obtained. So Compendious a contraction, and made such an instantanious Represen- tation, ot what was So Volummously Treated ot, and So many Ages in Collecting; I resolved to prosecute the same in other parts ot the world; And accordingly I procured other Lightning Sea Columns, and Severall other Volumns ot Navigation, as M: Sellers,''*'' and other, English Pilots: M': Thornton's"" Oriental Navigation in Folio, M; Dampiers,'" M': Roger's"^ — and other Voyages round the World; and after I had in Like manner entred the Characters, according to what was recorded in those Volumns: I Visibly perceived; by the pointing ot the Said Arrows, that the waters in the North Hemisphere; do generaly Set or Flow towards the South: And on the other hand, those ot the South Hemisphere; do in like manner. Generally tlow towards the north: From which Visible and undeniable Phaenomina (with a kinde of admiring Speculation,) I plainly discovered. That the watters of the Oceiiti, are oriiiinally moved at the Two Poki of the worhh And do iihiinalely meet, in or near the Aiquinoctiall Line. '''' Now that this is the genuine and Natural motion thereof, is, in Some measure, confirmed, troiii the very shape m which the Earth was originally formed. (Viz';) in that the two grand Continents ot Land, and the two great Oceans of water, do all of them, range a long with the meridians, from North to South; which was doubtless, by nature. So designed, on purpose to admitt, and further the Said Motion: For if they Should have trended, from East to West; it would have interupted, or wholy prevented the Same. And what dos further Confirm this Doctrine, is. In that the many great mountains, or Island= like sholes of Ice, that are annually found Swiming in the North part of the Atlantick Ocean, are always observed to Soar along, and make their way good, as 'tis called, from the North to (p. 129] the Southward; even till the heat of the Sun has totally dissolved the same; as the mariners, treading to those parts, do generally testifie; And doubtless, the like Sholes would be found, coming from the South Pole, towards the North, if our Navigation did lead us there, to make the like observations. Another Instance which confirms the Said Doctrine is, in that the Tydes, do generally run much Swifter, and rise much higher, in these and the more Nothern parts of the world, than they do between the Tropicks, and near y' j^quinoctial Line:'''' Now that this dos priwe the Said Proposition is evidenced by the Experiment ot the water in the Sute; mentioned in Sect; III, whereby it appears. That water will naturaly Run Swifter and rise Higher, at, and near the place where it is first Sett in Motion, than it will at a greater distance; From whence it is evident. That as the knowledge of the place where it IS first moved, dos now show us the Ciih.«' ot the Said Phafnomena, to wit, of its 1 18 The Earth Generated aiui Anatomized rising highest in the Nothern parts; So the said Phaenomena, dos as plainly demonstrate. That that must be y" place where the Tydes are tirst moved in the Nothern (and, doubtless, in the Southern) Hemispheres: By all which it is manifest that the motion of the water is such as is herein before and after described. But if notwithstanding what has been Said, any person (through their attection to the immaginary and medly hifluence of the Sun and Moon,) shall object. That I might be partial, and not Sincere, in those deliniations; and consequently, disbelieve the truth of this discovery; my Answer to such is. That I refer to the Said Vollumns tor my Justification; with this confidence, as to challenge all the Philosophers & Mathema- ticians in Europe, to Confute the Said Doctrine; either bv the Vollumns before mentioned, or by any other, (if such there be,) of like nature. And as tor the Sincerity of the Mariners, that recorded those observations, it being done in So many Ages; and by Such Variety of persons, it would be absur'd to Suggest, that they should be fraudulent therein; as not knowing [p. 130] What they had entred, would ever be used, to produce or warrant Such a Discovery: And therefore, if it should be Suppos'd, th,u I have been Misled in any particular, it must proceed from their taking a Trade=wind=Current, or the like, for a Natural Tide; & not from the Partiality or designe of the Said Authors, or mv Selfe. And as tor the Objection that mav arise, on account of the waters Setting with the Trade=Winds, Monsoons, &c: I shall briefly Answere, That that Motion, is only on the Surface of the Ocean; and that under its Surface, the Tvdes have their natural Course, as before described: and accordingly M: Dampier'" has told us. That he found, under the Surface, a different motion therein, (by his observations) when under the Clymet, where the said winds prevail. Inasmuch therefore, as the Vollumns before mentioned are impartially compiled, and the Delianiations m the Mapps, accordingly Drawn; and consequently the aforesaid Proposition, thence arising, fully confirmed: I shall now pass on to the further Explicatiiin thereof. And as for that part of the Mapps which relates to the general Setting of the Tides; it is So visible. That 'tis need less to Sav more, than only acquaint; That as the Arrows heads, do shew which way the Water flows, 'tis but naturall to conceive. That it general v Ebbs, on the opposite point of the Compas: And where you See them pointing one against another, as on the East of Ireland, and on the SouthEast of England; there the Tides do accordingly meet each other. And as we know, there is no concussion at their meeting, in these, and other like places; So wee may be assured that there is none, at their returnings or meetings under the Equinoctial, or at y! Respective Poles of the world; and consequently the waters are there as Navigable, as in other places of [p. 131] y'' Ocean: And this I hope may Suffice in brief, tor the Original, Course, and Meeting of the Great Waters; as also to Shew by what means I obtained the Discovery thereof: (to wit) From what is Recorded bv Mariners, in their Several Observations as aforesaid: And Seeing this Method wherein I proceeded; is the Same by which M': Halley, m his Late Mapps, '^'' has delineated the Variation of the The Earth Gi-iieratiil and Anatomized: Tiwl 1 19 Compass, and the Trade Winds; I See no Reason, whv this Should not be equally accepted and approved. 1 Shall now proceed to Some other Observations, that Succeeded as Corollaries form the trist Discovery; For as in Algebraical and other like operations after the Aquation is discovered and the Solution brought to Light; there trequentlv ariseth, Such Consectarys and Aphorisms, as before were not expected; and Sometimes Such as could not be preconceived: So when I had discovered the places of the Tides original!, and meeting: 1 likewise found the Cause of the manner of their Flowing; which could not So well be known, or conceived, before this Discouery was made: As will plainly appear by the following Lines. And in the First place it is to be observed, that almost on all the Sea Coasts, from Usluint to Cape S; I 'iiiceiit, and thence even to the Canary Isles; (as you will find by the Said Register,) a S:W: and a N: East moon, makes, (as tis called,) full Sea, for above a thousand Miles together: And not itnly So, but tis always full Sea, all along these Coasts, Severall hours (hcfon-) tis So, further up in the Rivers thereunto belonging; whereas m the English CJuwinll, as also in the Mcdilfrraiicaii Sea and cither like places; where the waters runns (bv) the Land, tis in both these respects quite otherwise; for 'tis not onlv ten or Twelve hours difference, in the time of full Sea, 111 the space of but 3. or 400. miles, in the Said Channell: But "tis also full Sea m the Rivers iS: Ports thereof, Severall hours, l/ic/iirc] tis So in the Offin or channell it selfe: all which will plainlv appear, bv the hours shewing the time of full Sea in figure III Plate 3.'''' or if compared with the Register before mentioned. Now the Reason of this great Difference in the flowing of the Tides, will easily be accounted for by this Doctrine, and by the Delineations in the Said Mapp; For tis there made evident even to inspection. That the Flouds on the Said Coasts of Portugal! &c; do generally Sett, or devolve, directly upon and against the Land; as it were at One and the Same Instant; For tis not above a point or two Difference, in the 1000 Miles before Mentioned; Whereas on our Coasts, it runns along [hy] the Land; and is therefore 10. or 12. hours (i.e.) 14. or 16. Points, before it can run up, from one end of the Channel, to the other; as before Observed. Whence we have this as an Aphorisme, That wheresoever you See the Waters Setting [upon or against] any Coast; and running |bv] another; vou mav certainly Conclude, That the manner, and Difference i)f tune in their Flowing; is such as before described. And this will hold true, even in the midst of the Oceans, as well as else where. The Second Pha'iioinctia to be Observed, is the Violent Cciurse or Setting of the waters, in the Giilph 0/ Florida: Where it runns So Strong to the Northward, for Some hundred miles together, that ther's no Sailing against it, though favoured by the Strongest Winds conducing thereunto: Which has Seemed to Some a inistery in Nature; But by this Hypothesis "twill also be easily Solved, &■ appear to be only naturall: In order to which it is to be Noted, that That part of the Ocean being Scituate within the compass & energie of the Trades Winds; and they, in those parts more especially, Blowing almost full West, (as appears by M: Hally's & 120 The Earth Generateil luul Aiuihvnizeii other mapps of the Said Winds;) do, as 'tis naturall, drive the Waters the same way with themselves; And forasmuch as the Naturall Course of the Tides as appears by Plate the 3, Figure I. do there Likewise, Set the Same Way with the Said Current: It is as it were visibly evident, that the force of both these Motions, being thus United together, must violentlv drive the Wattcrs against the Land: by which it being Stop'd; It forthwith Setts to the North; (as you may See it cannot do otherwise,) with that Rapidity as to cause the Phaenomena in the Waters before mentioned: And did not the Said Winds become calme on the East Side of x4.tM, there would [p. 133] be the like Phenomena on that Coast, as on the Coast of ^4meriai now described. The next thing to be noted from Fig: I. and II,"* Plate the third; Is the great quantity of Water, that meets under the ^Equinoctial Line: Between 170 and 270, Degrees of Longitude, (to wit) in the South Sea; compared with the parvity thereof that meets in the opposite part of the Globe; (Viz';) between 20 and 150 Degrees; it being there prevented by the EURO:AFRI=ASIAN Continent. Now forasmuch as this inequality in the meeting of the Tydes is Visibly manifest; and Seeing God made nothing in Vain we will therefore propose what Effect this may have upon the Body of the Earth: And in the First place it is to be Noted (as in Sect: III.) That Seeing the Waters are moved at the two Poles of the World, at one and the Same instant and doubtless, to one and the Same heighth or distance from the Center: That motion, being Equall, cannot therefore cause the Earth to Ponderate or devolve, either towards the north, or towards the South: But when those Flouds, shall come and meet each other under the Equinoctiall line, for at least 5000 miles together, m that great ocean, and not perhaps the Moiety thereof, on the opposite parts of the Earth, (though it riseth near the Said Line but 2 or 3 foot in heigth;) yet I say, being for So many thousands of miles together, it must of necessity bring the Earth out of its j^quilibnty; and thereby cause it to ponderate, either to the East, or West which being constantly repeated, must unavoidably give it that naturall diurnall Rotation, that has, especially of late years, been justly ascribed thereunto: For it is evident, that if a Wheell or Sphere, be equally poized, and its Superficies equally distanced from its Center, as the Earth was in its aforesaid fluidity; and if after that, any thing be (tho but intermitingly) added to one Side thereof and not to the other; yet if that addition, be perpetually repeated, it must of necesity cause it in like manner, constantly to move round upon its center: And the same may be understood of the Earth, from the causes before [p. 1 34] mentioned: (And doubtless if ever the Perpetual motion be found, it must be m imitation thereof.) C)nly with this difference. That whatsoever Spherical Body, is suspended in y' open j^ther Unfixed, and therein moved as the Earth is. That primary or centrall Motion, must unavoidably cause it to Seek a new Center; which being likewise, pepetually repeated., must., as Could be easily demonstrated, produce a Secondary, or Orbitall motion; probably, round the Center or place where it first rested, at the Seperatit)n of the Chaos before those Orbs were Vivified; as is Shewn in Sect: I, in the preccedent T]ic Earth Geiieratt'd ami Anatomized: Text I2I Having Solved Some of the Phsnomena's in the Ocean; and also Shewn that the Disparity, in the Meeting of the Waters ni the >4-qinnoctiall is the Cause ot the Earths Rotation; I now come to Explam the Lines P, JE, P, and P, N, P; Wherein it is to be understood; That forasmuch as the places of the Originall Rising and ultimate Meeting of y" Tides, are 5400. Miles asunder; it cannot reasonably be supos'd. That the Flouds made at either of the Poles, do runn from thence directly to the Said Line, without any Ebbing, in any place, 'till thereunto arrived: I shall therefore, not only Shew, That they do not So pass; but also propose. How many Several Flouds and Ebbs, may, according to the Pha?nomena's in the Tydes, be at all times existing between the Said places, as they pass on in the open Ocean; And to guide us herein we have these two things that are certainly known. First, That the Distance from the respective Poles, to the i4^quinoctial, is, as is Said S400. Miles. Secondly, That the certain Mmw time, tor one Ebbing, and once Flowing of the Tydes; is alwayes but 12 Hours and 24 Minuits; (though the difference of Spring & Neap^Tydes is alwayes more or less as by the Tyde Table in Sect: II, appeareth.) Now forasmuch as one halfe of this time is almost in all places ot the World, taken up for the Floud; and [p. 135] the other half for the Ebb; it will evidently follow, that when it has flowed 6. Iwurs & 12. minutes; it must, as Experience confirmeth, begin to ebb again wheresoever it was then full Sea; though perhaps, in that time it has not run above 6. or 700. miles forward from the place where it was first moved; not in Some places half So much; Whence 'tis plain, from these known truths, that as the flouds do pass from the Poles, to the Line; there must unavoidably, be Severall Flowmgs and ebbings, following each other, at Some certain Distance, before it can Run the 5400. Miles before Mentioned: Nevertheless tis the first Floud, by pushing forward the Ocean, that causeth it to flow on, till 'tis Stop'd either by the Waters meeting each other in the Line, or by the land on the respective Coasts; as in the foregoing Treatice is more fully Shewn: And therefore Supposing, as it is but reasonable, that at about every 700. miles Distance, there is an Ehh as well as a Floiuh we may justly represent the Severall Ebbings, & Flowings, as you see them described by the Lines P. JE. P., & P. N. P, before mentioned; in w':'' yo may conceive the waters in one Latitude, Ebbing towards P, P; And at the Same time in another Latitude Flowing towards JE, &' N: For as Soon as it has flow'd the Said 6. hours & 12. Minutes in any Latitude; it thereupon generally Ebbs, or returns again towards the Poles, or place from whence it came; Or to speak more properly, to the next place where it is become Low water; So that it it be full Sea under the Poles, or in any other Latitude, at noon; In about 6 hours and 12 Minutes after, it will be Low water, in all the Same places; as by comparing the hours, in y'' Said two weaving Lines with any Tide=tables will more fully appear. 122 The Earth Caierah-il atui Aiialomizeii Now to prove that these things are not groundless Notions nor Speculative Assertions, but agreeable to Truth & Experience; I have annexed a Compendium of the Flowing of the Tydes, m the English Channel, in Fig; III, Plate j;""" by which it appears. That between the Laiids^End and Vshaiit. it is full Sea at 6 of the Clock (e.g.) in the Morning; But between Flanders and the Dcwtis. (which is but 300 Miles from the place first mentioned,) 'tis not So, 'till 3 in the Afternoon; the Difference of which time, being 9 Hours; It must (and Experience testifies the Same,) have been Low=water at the first place, and the Tyde returning thither again with halfe^Floud, by Such time as it is full Sea in the Downs: Which fully proves, (p. 1 36] That there must be Several Ebbings and Flowings, before the flouds can pass from the respective poles to the Equmoctiall, because ot the great Distances before mentioned; and that the said Compendium is impartially drawn, I refer to the common Tide=tables; as also to M; Hally's accurate map of the English chaiTel;"'' where you'll find it undeniably verified. Another instance to the same purpose, is what mv self observed, when I kept the foregoing Register (Viz') That in the Lake or Lai^iinc Lying between y' Isle of Portland, and the town o^Ahhottshiiry:"'- I found it to be full Sea; at the mouth or Inlett of the said Lake, at Least three hours before it was So, at the other end thereof; As by the Said Register appeareth; For the full=sea at the Inn=lett is very near the same as at WcYinoutli. th'o the said Lake is not 7 miles in Length in the Whole. Now the reason of this great Difference, in So Short a space; is partly owing, to the winding about of the water, round the said Island: but cheitly to the narrowness of the Inlett; that Leasds into the Said Lake; It being not above 4. or 5. perches broad. Forasmuch therefore as it apeareth that the Tides are hastened or retarded in their Course; in Some Proportion according the narrowness of wideness of their Inlets (For we finde that in the first Instance, where the mouth ot the Chanel is large, they run about 300 miles in 9 hours which is above ten times faster than 111 the said Lake.) I therefore reasonably concluded, that in the wide ocean where its Course is not interupted bv winding about or otherwise; it might there Flow, 6 or 700 miles in 6 hinirs and 12 nimuts; and ebb as much in the Same time: Which is the reason that induced me to asigne So manv miles, tor one ebbing and one flowing in the great ocean. From which Instances, together with divers other appearances in Nature, we may reasonably conclude, that in all probability, there is not less than nine or ten Flouds, and as many Ebbs, alwayes Existing between the respective Poles, and Place of meeting; and accordingly we have represented the Same, by y' weaving Lines before mentioned; And tho we cannot pretend fully to demonstrate, their certain number; yet wee can further prove that there are severall (p. 137] of them So Existing, by what we further Experience, in th English Chanel before Mentioned, For you See at the Entrance thereof in Fig; III, Plate 3,"'^ 'Tis full sea at XII a Clock, (e.g.) at Noon; But between Calis, and Dover, (by the coming up of that Floud, as the Hours between the said places do manifest,) it is ntit So, till XII at night; Yet at that very XII at night, there is anothei full Sea again, at the said The Earth Gein-ratfii and Analoini:cd: Text 123 entrance of the channel, which is made by the Floud coming triim the West; and the Ebb returning from the East: And according to this manner ot Ebbing and Flowmg the Waters are there, and elsewhere, agitated from one full Sea to another; Whence 'tis evident. That there is constantly no less than two tflouds existmg, at one and the Same Instant, in the Said Channel, withni the Space of 500 Miles; and theretore there must be many more within the distance ot S400 Miles, as was before Asserted. The next thing intimated h\ the Said Weaving=Lines, is. That the Tydes or Flouds do loose their Energie; and gradualy dimmish their Heighth, and Swiftness in Runing; and also the distance in their approaches to each other, according to the distance, as well in respect of TiHif, as of the Place; when and where they are tirst moved. From whence we may plainly discover the Cause why the Waters do generally Flow So faint and inconsiderable, between the Tropicks and near the i^iquinoctial; to what they do near the Poles, where they are first moved: Which Faintness M: Dampier,"''' and others, have well observed and entred, in their respective Voyages. For although 'tis Observed, That where the Tydes of floud do pass through any narrow Streight or In=lett, to Supply any large Bay or Lagune; the Flouds at Such hi^letts, do comonly Run very Swift, and rise very high; and also flow longer, than what is usual elsewhere: Yet nevertheless at the bottome, or further end of Such Bayes, the Motion is in all these respects quite otherwise: For in Baffins and Hudsons Bayes, m Lat: 70 deg: North; Where it runs So Swift at [p. 138) the In=lett, as that it riseth 50 Foot parpendicular; and Flows about 9 Hours, and Ebbs three, (both making the mean time before mentioned; as it dos likewise at the Port of Weymouth, where 'tis 4 Hours Floud, 4 ho: Ebb, and the remainder dead Water;) Yet I Say, notwithstanding this great Swiftness, and rising at the hi=lett, we finde that at the farther end of those Bayes, especially where it Runs to a great distance, as in the Mediterranean Sea, and other places; the Motion becomes So faint and Languid, as that it riseth not above one or two foot in heighth; and in Some places, as in the latter, the motion becomes So Slow, as to be Scarce discernable: The time in Flowing, and Swiftness in Runing, being also diminished accordingly. From whence, as also from the Logarithmetical Motion, which I discovered in the Tydes, mentioned in Sect: III, I was taught to make the Weaving Lines P, /E, P, and P, N, P; [Decreasing] in heighth, and distance from each Floud; as they [increased] in distance, from the time, and place; when, and where, they were first moved: And according to this Weaving forme or Motion, we ought to conceive, all the Waters in the Ocean generally to Flow, or to be alwayes agitated; as before declared. And It is further to be observed, That if any of these, though but faint Flouds, do flow against, or before the Mouth of any, considerable Rivers It will So Stop their Course as to cause great Risings in Such Rivers though the Waters in the Bays do rise but very little; As appears by the Flowing 15. Foot at Port Nelson on the S:W: of Hudsons Bay, (and divers other Rivers), tho' the Flouds are there So faint as before Observed. 1 24 The Earlh Generated ami A iiatom iieil And here it must be also remembrcd. That none ot these Occasionall, or particular great Risings, or Long Ht)wings; Ought to be regarded, or had in competition, with the true genuine or naturall Motion of the Tides, in the wide Ocean: For although, (even towards the Equinoctial.) there are almost [p. 139] Such Flowings. at Such In=letts; as at the Lagune ot Trist in the Bay ot Campeche"'' Lat; 17 deg: North; where it riseth 6 or 7 ffoot: And at S': Michael,""' on the West Side of America Lat: 5 Deg: North; where it riseth 20 Foot: As also at the Streights between Nova Holaiidia. and the Maliicca Ish-f. Lat 15 Deg: South; where it riseth 30 Foot: Yet I Say, notwith^standing these great Risings, at the Entrance into Such Bayes, at a Smal distance from them in the wide Ocean, especially near the Line, it riseth but 2, 3, 4, or 5 Foot; as the Authors before mentioned, and divers Mariners have observed & Recorded: So that we may be well assured; That the natural and general Rising ot the Tydes, in the wide Ocean, even near the places where they are first moved is not more than about 7 or 8 Foot; and so down to 3 or 4 Foot as they approach the j4:quinoctal Line: as will doubtless more fully appear it observations be turther made, at Some distance trom Small Islands in the midst ot the ocean; being the properest places for that purpose. Nor is the time of full Sea to be truly reckoned, without having respect to the general! Currant or Setting of the tides as you see them Delineated in the said mapp: For suppose a S. S. West and N. N. East Moon Should, as is pretended, make Full Sea at one of the Isles oi Azores; Latitude 40, Deg: No; and alike S. S. West; and N. N. East Moon, Should also make Full Sea at the Isle S':/lnfc)Hic),'^' in the Lat: 19 degrees North: Yet you see, by the course or setting ot the Tides, as thev are described in the said Mapps, That it must be FulUsea at the Isles oi Azores, (If it was full=sea at such moons,) 12 Hours and 24 Minuts; or perhaps 24 ho: 48 before it can be So, [hy that Floud] at the Isle S': Antonio: And So more or less, in all other places; as you therein See, the nature of their Flowing will produce them. I might here proceed to other Phanomena 's, as well relating to the trade=winds, as to the Marine parts of the Earth (for I tind none, ifgericrall, but what may be accounted for by the precedent Doctrine:) But I Shall at present only Shew, That the [p. 140] Waters, by their thus meeting in the Line, do fully confute the Old Notion, of their being Governed by the Moon. And herein Let us Suppose, That they are Moved bv the Mt)on's pretended Attraction. Then it will appear, from the two first Mapps, That whensoever the Moon comes into the Sign Cancer, (as She dos once in less than every 8. and twenty days.) That Quantity or moiety of water, which belongs to the South Hemisphere, to wit, from the South pole to the Equinoctiall; would be drawn 40. or 50. degrees. Further Northward; by which means, all the Waters between the South Pole and the yCqumoctiall would not only be greatly attenuated and diminished in its Debth; but The F.arth Gi-nennt-d luul AiiiUotnized: Text 125 also at the Same time, the other moiety belonging to our North Hemisphere, to wit, from the /Etjuinoctiall, to the North pole; would, on the contrary, be as much accumulated, and increased in height: From whence it would necessarily follow, that once everv Moneth, whether the moon was at full or change, at hrst or last Quarter; it would make the Tides 2. or 3. times higher, than when, on the contrary, they were drawn to the Tropick ot Capricorne; which would be as frequent as the tornier; Near both which places, it would alternatly remain in that position, tor 6. or 8. days together. But inasmuch as this Ph;vnomena, nor any thing like it, is ever tound; We may Justly inter, and Assert, that as there is noe Such Ettects, there can be no Such Cause; Therefore the moon dos not Attract &c: Nor is this all the Consequences, that would attend Such a Supposition; For Seeing the davly Rotation of the Earth as has been Shewn, is caused by the Excess, or inequallity ot the waters meeting in the yEquinoctiall, compared with the parvity thereof meeting on the opposite part of the Said Line; It will as naturally follow. That if they Should, in like manner, be made unequall, bv being, as is [p. 141] Said, drawn from one Pole towards the other; and made to meet in the Tropicks, as aforesaid, instead of the i^quinoctiall; they would unavoidably bring the Earth out ot y4;quilibrity in respect of its Poles and thereby, cause, it, alternatly, to turn from North to South, and so trom South to North again. The absurdity ot both which Suppositions, every Moneths Experience, dos visibly testify. Wherefore the Waters are not drawn bv the Moon, as aforesaid. And what is here Said ot its attractions, may be also understood. Mutatis Mutandis, of its Supp>5sed Pressure. From both which, observations, being So fully confirmed by Experience, tis Sufficiently evident. That tho there is, as has been Said, Some Conformity in respect of [Time] between the Motion of the Moon, and that ot y' Tides; Yet I Say notwithstanding this; The Moon has no power or Influence to draw or Attract; nor by pressure, to Repel or drive back, the least drop or part of y' Ocean, in any manner whatsoever. For although a thousand Clocks, and as many Watches, may in like manner agree with each other, as is Said, in respect of time: Yet we all know. That neither of them is the Cause of the others Motion. For a Conclusion therefore. Seeing it appears by the I, and II, Fig: Plate 3;'"" (Or at least by the Volumns from whence they were derived,) That the Tydes do Originaly proceed from the two Poles of the World: And that the mean Time for one Floud, and one Ebb, jointly taken, is but 12 ho: and 24 Minuts: And Seeing (p. 14.2] also the Tydes do certainly require a constant Resusitation or lifting up, to continue their Motion of Ebbing and Flowing: What may we Infer from these and many other appearances in Nature: (for the very invisible things of God, are manifest, by the things that are made and do appear,) but that the Waters are at first, by a kinde ot Systolation, and J 2(3 The Earth Generated and A natomized Diastolation, gradualy thrust up or put m Motion at and riniiul about the two Poles of the World, as we have before Asserted. Secondly, That the Semi=Diameter of the Quantity of Water that is there first moved, before it begins to Subside again, is Somewhat more than the aforesaid Distance of its flowing in the Ocean, when it comes under our Latitude (Viz:') above 700 Miles; because it runs faster & farther at the places and times, of its frist Moving than it does afterwards: Nevertheless the Semidiameter of the Musculous parts of the Earth that gives Motion thereunto, are not respectively, perhaps one titth or one tenth of that Measure. Thirdlv That the time Spent in its fnst Raising up. is not only less than the mean time of 6 ho: and 12-^'" But also less than 6 ho: and 7"'" Because you may See in the frist table beforegoing; the Distance in flowing at Spring=tides; is but 2S"'" in 24. hours which is for two flouds and two Ebbings: and therefore it can be but iine fourth part thereof (Viz') 6 ho: and 7"'" for the bare flowing or raiseing up of one floud when it comes on our Coast: and Consequently, it must be less than that |p. 143 1 where it is frist moved; as the nature of their Flowing dos Demonstrate. Fourth, that the like time is Spent in its Sinking down again. Fifthly that this motion is constantly repeated or renewed, at the End of every 29 Ebbings and as many Flowings there being no more in the 1 5 Days that are comonly reckoned from one Spring^tide to another. Sixthlv that the time when this Lifting up is first begun, is about 31. Hours before they begin to lift; (as 'tis rightly called) here; (which the Hours in the first Weaving Line at our Latitude do plainly intimate;) Namely, When the Moon is about 8. Dayes &■ \. and 23. Dayes and { Old. Lastlv, that by and from these two first Flouds, and the Energie thereot; All the Ebbings and Flowings in y' Oceans, are Constantly agitated and produced, and thereunto Justly conformed Assimulated and continued. Finis. Notes and references My practice in these notes has been first and foremost to identify proper names, places, and references to works cited by Hobbs. To some degree the notes contain a commentary on the more geological aspects of Hobbs's thought. I have thought this worthwhile because discussion of the crust of the Earth is the central subject of Hobbs's tract, and is the most intellectually interesting feature of his work. I have not attempted an analytical commentary on Hobbs's broader astronomical and cosmic speculations. The recto of the first blank sheet of the MS before the title page carries the following note in ink J. Bailey August iXis 1 bought this MS 111 the borough of Southwark. Shortly after 1 had made the purchase mention was made of it. The Title quoted partially &:c, in the Times newspaper. J.B. Also on this page m ink there is the jotting Parkinson's Organic Remains of a former world. 3 vols. Sowerbv's Conchology 4 vols and m pencil The Earth Generated Brilsclhi nearly new, complete & for ready use. Is only to be seen at 93 Long Acre opposite Bow St Times Sept ig 1S2S I have not been able to ascertain with certainty the identity of John Bailey. |aines l^arkmson's Organic remains was published in three volumes between 1X04 and iSii (London). James Sowerbv's The mineral cotwliology of Great Britain appeared in seven volumes between 1812 and 1846. A Britscha is an open-air carriage. TITLE PAGE The five words which constitute the mam title are on a slip of paper pasted over the original title, which is 'The Generating & Anatomizing the Earth' I The complete verse — in the King fames version — of Isaiah s: 12 runs: "And the harp, and the viol, the tabret, and pipe, and wine, are in their feasts: but they regard nut the work of the Lord, neither consider the operation of his hands'. The complete verse of Romans i: 20 is: 'For the invisible things of him from the creation of the world are clearly seen, being understood bv the things that are made, even his eternal power and Godhead; so that thev are without excuse'. 128 7"'''' Eiirtli (ii'nenitfd tiiiii Aiuttcmis:ed The complete verse of Wisdom 7: 17 is; 'For he hath given me certain knowledge of the things that are, namely, to know how the world was made, and the operation of the elements'. Hohbs seems to have used the King James Bible, but does not alwavs quote completely accurately. 2 It is worth noting that Hobbs nowhere gives a technical name to the science he is pursuing. 3 It IS unclear which counties. The only ones mentioned bv name are Dorset, Devon and Cornwall. Hobbs's experience of strata seems to have been chieriv ot sediinentarv rocks, from which one can assume chieBv a familiarity with the geologv ot the more southeriv and easterly parts ot the British Isles. 4 Figures i, 3, 4, S, are all missing. They are here conjecturallv reconstructed at the end of this edition. 5 Hobbs's remark is perceptive, though it is strange that he says he has met it nowhere, since it is a dictum ot John Woodward, with whose Essay lowards a natural history of the earth (London, 1695) Hobbs was obviously familiar. 6 Note that Hobbs has no technical, generic term tor 'fossils'. He never uses terms such as 'extraneous fossil' or 'formed stones'. 7 Hobbs is here most likely referring to the coastline between Weymouth and Poole. Cf. ti. M. Davies, The Dorset coast; a geological guide (London, 1935); A. W. Rowe, The ii'hite chalk of the Dorset coast (London, 1901); W. J. Arkell, The geology of the country around Weymouth, Swanage, Corfe and Lulworth (Geological Survey Memoir) (London, 1947). 8 Figure 2 is lost, and has been reconstructed. 9 This IS typical ot the homely, popular inet.iphors which Hobbs uses throuijhout. It also embodies his overall alchemical interest in processes such as termentation and baking. 10 Hobbs here summarizes Genesis i. 11 Note the omission of any mention of Man. The entire tract is remarkable in respect of how little It discu.sses the history and functions of the Earth in terms of Man. 12 Genesis 2: 4 reads; 'These are the generations of the heavens and of the earth, when they were created, in the day that the Lord God made the earth and the heavens'. Hobbs's philosophy of generation fused together two main currents of seventeenth century scientific thought. On the one hand there was a tradition of analysis of living bodies, which would include William Harvey's Exercitationes de generatione aninialium (London, 1651); Sir Kenelm Digby's Two treatises, of bodies (London, 1650, see especially pp. 201-65, 290-302); N. Highmore, The history oj generation (London, 1651). For commentary on these see Joseph Needham, A history of embryology (second edition, Cambridge, 1959), pp. 120-39; Philip C. Ritterbush, Opertures to biology (New Haven and London, 1964); Elizabeth B. (iasking. Investigations into generation 16U-1S2S (London, 1967, especially pp. 56-65); T. S. Hall, Ideas of life and matter, vo\. i (Chicago and London, 1970). At the same time, there was also a tradition ot comprehensive alchemical philosophy, which interpreted N.ature in terms of proce,sscs such as generation, organization, distillation, fermentation, corruption and putrefaction. For some guidance to seventeenth century works in Notes and Releremes 129 tills tr.ulitmn sl-o H. |. T. Dcibhs. 77ic foiimLjlii^tis oj Nni'ton'i alchciny (C.imbridgc, 1975, especially pp. 44—60 and bibliograph\'); Allen (1. Debus. Tlic Eii(;lish Pimuclsiaiis (London, lOfi^); Owen Hannawav. Tlir Chcinisn ami llif Word (Baltmiore and London. 1975); Walter Pagel. rlir m7i(Jiii;i\ and jdiilosophical aspals of I'aii Hchiiom 's scioncc and nicdicino (Supplement to the Bnllrlin of the history of nu-diiino. no. 1. Baltnnore, 1944). Here, as elsewhere, it is verv dithcult to grasp how widely Hobbs had read in these tr.iditions. He occasionallv quotes directly (c.i;. , from Digby and Basil Valentine), but his overall philosophy is an eclectic amalgam, not directly or tiitally dependent on any one source. As a former excise ofticer, Hobbs must have had considerable hrst-hand experience of brewing, distilling and rehning. This might help to account tor his chemical philosophy of the world. 13 This kind of interest in God's creativity is characteristic ot seventeenth century exponents ot alchemical philosophv such as Robert Fludd and Gabriel Plattes. C(. the works by Debus and Hannawav cited in the previous note, and Debus's 'Gabriel Plattes and his chemical theory of the torniatlon ot the earth's crust', Amhix 9 1961: 162-5. 14 in other words, Hobbs was claiming that, as in the tormation ot a toetus all parts generate and grow simultaneously, so likewise the tormation ot ditierent teatures ot the Earth is a synchronous process. The "days' of Creation are not successive stages m time, but rather different aspects ot an organic, synchronic whole, 'a common Coagulation, and General Graduation". This IS a radical solution lo the issue ot the order ot the Mosaic days. Not only does it forestall the problems which arise trom treating the days literally as periods ot t\yentv-four hours. It also avoids the ditticulties which ensue trom the Biblical order of creation, m which for instance land and sea are supposed separated before the creation of life, thus making it obscure for many naturalists to explain how fossils had become embodied in the rocks. 15 Note Hobbs's stress on the fecundity ot Nature. Here as elsewhere Hobbs stressed that it was N.iture which brought forth creatures, not G/i. cit. (note 12) pp. 124-7, 135-40. Notes and R eferences 1 3 3 52 I.e. . The u'orks of the Hon. Roherl Boyk, Estj. , Epitomiz W hy Richard Boultoii (3 vols, London, 1699— 1700, I: 73). Hobbs's quotation is substantially accurate. 53 This is certainly a jellyfish, most probably Amelia aurita. The whiter parts are probably the sex organs. The dilations and contractions are its mode of propulsion. I have not come across any other usage of the local term 'Bulls'. Hobbs sent a drawing of 'Bulls' to the Royal Society in 1709. It has been lost. 54 Figure 6 is lost, and is here reconstructed. 55 The Euclid reference can be found in Euclid's Elements oj geometry published by John Leeke and George Serle (London, 1661), iio thus: 'It in a circle ABC, two right lines AB and CD divide one another (in the point E), the Rectangle contained under the two parts of the one AE and EB is equal to the Rectangle conteined under the two parts CE and ED of the other'. 56 For histories of spontaneous generation, see above, note I2. 57 This represents a clear attack on the beliefs of John Woodward as set out in his Essay towards a natural history of the earth (London, 1695). Woodward's belief that strata were arranged in order of their specific gravity met almost uniform opposition. It is not clear what Hobbs has in mind a little lower down when he asserts that beds (if chalk etc. are found under mines or beds of lead, tin, silver, etc. 58 This IS an important juncture of Hobbs's philosophy of the Earth. Most writers who accepted the organic analogy of micro- and macrocosm attributed to the Earth, as to other living bodies, hair, veins, bones, warts, a mouth, an anus, etc. — as in particular did Hobbs's contemporary Thomas Robinson in his The anatomy oj the earth (London, 1694). Hobbs perceptively rejected this one-to-one equivalency of physical and physiological attributes. For Hobbs, the organic analogy served chiefly to guarantee the belief that the Earth's economy was an integrated system, with each part functional to the sustenance of the whole. Generally on such analogies see G. L. Davies, The earth in decay (London 1969: ch. i). For Robinson, see F.J, North, 'The Anatomy of the earth — a seventeenth century cosmology'. Geological magazine 71 1934: .S4I-7- 59 Job, 26: 7: 'the Lord hath stretched out the North over the emptv places, and hanged the Earth upon Nothing'. Hobbs's conviction that the Earth was a perfect, self-contained economy — a belief he carried even to the length of asserting that the Earth's intrinsic heat was far more important than the Sun's heat in the generation and sustenance of terrestrial life — was unusual for this period. Far more common was the view either that the Earth was senescent and in decay, or that it had been in some wav flawed bv the Universal Deluge. Most contemporaries of Hobbs believed that the Earth would in time fall into an uninhabitable condition. Hobbs on the other hand stressed the perfect organic adaptation of the Earth, a view which was hardly found till James Hutton's vision of the Earth as a scene of 'life, death and circulation'. 60 /.('., the great whale or sea monster referred to in Job 41: i; Psalm 74: 14; Psalm 104: 26; Isaiah, 27; i. 1 34 Notes and References 61 One of Hobbs's rare references to the place of man on the scale of existence and in the scheme of history. Hobbs was almost silent on human destiny, or on the relation of Man to the rest of Creation as set out in the Bible. 62 Job 42: 7: 'And it was so, that after the Lord had spoken these words unto Job, the Lord said to Eliphaz, the Temanite, My wrath is kindled against thee, and against they two friends, for ye have not spoken to me the thing that is right, as my servant Job hath'. 63 For theories as to how the Earth generates minerals, see F. D. Adams The hirtli and development of the geological sciences (reprint. New York, 1954: chsiv, v, vi, ix). Hobbs's ideas here somewhat resemble those of Gabriel Plattes's A discovery of suhtcrranrnll treasure (London, 1639) (for which see A. G. Debus, 'Gabriel Plattes and his chemical theory of the formation of the earth's crust', Amhix 9 1961: 162-5), and Thomas Robinson, The anatomy of the earth (London, 1694). 64 For a guide to contemporary lunar theory, see 1. B. Cohen, Isaac !\'eii'ton's "Theory of the Moon's Motion" icith a biographical historical introduction (Dawson's, Folkestone. 1975). 65 Figure 10 survives. 66 'Magnetic' theories of the pull ot the Moon on the tides were quite common up to the late part of the seventeenth century, being associated with such writers as William Gilbert, Simon Steven, Johannes Kepler and Joshua Childrey. For a contemporary survey of theories of the tides (and an important contribution in its own right) see John Wallis, 'An essay exhibiting the hypothesis about the flux and reflux of the sea', Phil, trans R. Soc. Land. I 1666; 263-89. For modern assessments of the range of tidal theories available see M. Deacon, Scientists and the sea (London, 1971 : 93-1 16), and E. J. Aiton, 'Galileo's theory of the tides'. Annals of science 10 1954; 44—57; and also the article by John D. North on Childrey in the Dictionary of scieniific hio^traphy 3 1971; 248. Childrey lived at Upwey. half a dozen miles from Weymouth; but since he died in 1670 it is unlikely that he knew Hobbs personally, unless Hobbs was very old when he wrote his treatise. For Childrey s comments on the unusual tides of the Weymouth area see A. R. and M. B. Hall, eds. The correspondence of Henry Oldenburg, 5 1668—9 (Madison, 1968: 384-6 and (on tide theory) 455-6). The Royal Society's Philosophical transactions carried an important debate on tidal theory during Hobbs's lifetime, as well as publishing tide tables. Newton's theory of the tides was made most easily available by Halley in 'The true theory of the tides', Phil, trans R. Soc. Land. 19 1697: 445-57. Whether or not Hobbs read such articles actually in the Philosophical transactions, we do know — from his citation in his 'Essay concerning Motion' — that he had read the 1705 edition of Halley's Afi.«a'//iiH(Vj mriosa. in which many ot these papers were reprinted. 67 It IS unclear here whether Hobbs was here specifically attacking Newton, or campaigning generally against all forms of action at a distance envisaged as quasi-astrological. 68 For Halley 's views on the Atmosphere, see the following articles in the P/ii7. trans R. Soc. Land.: 'An historical account of the trade-winds and monsoons'. 16 1686: 153-6S; idem. 'An account of the circulatiim of the watery vapours of the sea', 16 1687: 468-73: 'An account of Dr. R. Hook's invention o( the marine barometer, with its description and uses', 22 1701: 791-4; and see A. Armitage, Edmond Halley (London. 1966: 75-83). See also the informative Notes and Rtierences 135 article, 'Atmosphere . 111 |ohii Harris's Lexicon toibnicuin. 2. vols (London, 1708—10). Halley's comput.itions of the height ot the 'sublimations' ot the Earth (4s miles) are to be found in his 'A discourse of the rule ot the decrease of the hight of the mercury in the barometer', Phil trans R. Soc. Lond. 16 16S6: 104-16. For a further discussion of Hobbs's use of Halley's ideas on the atmosphere, see below note 92. 69 For Huygens see A. E. Bell, Chrisiiaaii Hiiyt^cns and tin: dcvolopniont of sctcncc in thf sci'onti'ciilh century (London, 1947: 161-4), and the article by H. J. M. Bos in the Dictionary of scientific hiot;raphy. 6 1972: 610. It is almost certain that Hobbs obtained his information about Huygens b\' re.idmg the English translation of his Cosniolheoros, i.e.. The celestial ti'orlds discover'd (London, 169S:,;/: p. 131 ff"). 70 Further evidence that Hohbs saw all forms of action at a distance as instances ot phoney astrological powers. 71 /.(■. . Saturn, jupiter and Mars. 72 Almanacs carrying tables of tides appeared annually in Hobbs's lifetime. Flamsteed published a good manv in the Phil, trans. 73 Hobbs's register of the tides is one of the most impressive surviving provincial records of the ticies of its time, tor by the earlv eighteenth century the enthusiastic wave of tide recording which had followed on the founding of the Royal Society had abated somewhat (see M. Deacon, Scientists and the sea (London, 1971; ch. v). It fully justifies Derham's comment to the Royal Society: 'Particularly I think his Observations of the Tydes may well Deserve the Cognisance of the Society, he having Observed them strictly for two years, and no doubt will if desired proceed with Delight m further Observing them if it be thought necessary". The form in which Hobbs kept his register is standard enough. The gaps in the record might be explained by prolonged visits which Hobbs had to make on his Excise business. The purpose for which Hobbs kept the register was to demonstrate empirically that the retardation of the time of high tide was not by a fixed number of minutes per day after full moon, but rather by a progressively increasing interval. He sought thereby to show that the intervals of the tides were not governed by the moon, but were governed by wave motions set up by the pulse of the 'heart' of the Earth every fifteen days, motions that gradually diminished in speed and intensity. In fact, tide patterns in the part of the English Channel around Weymouth are so complex as to render any general deductions from Hobbs's record meaningless. 74 /.(■.. the River Wev. For a brief account of the geography of the area see R. Good, W'eylaiiil: the story of IVeymouth atid its countryside (Dorchester, 194s). 75 In other words, Hobbs reversed the normal causal arrow, and suggested that the rotation of the Moon was governed by the motion of the tides, not t'ice versa. 76 /.('., Thomas Burnet. Telliiris theoria sacra (London, 16S1 and l6Sg; English translation. 16S4 and 1690). 77 Hobbs was here developing a view of the relation of the Moon to the Earth which depends ultimately on a Cartesian vortex theory. The theory as set out by Hobbs, however, certainly is not Descartes's. See E.J. Aiton, The vortex theory of planetary motions (London, 1972). 78 I.e., Kepler's second so-called law. 1 36 The Earth Generated ami Anatomized 79 For contemporary theories ot winds see E. Halley, 'An historical account ot the trade-winds and monsoons', P/ii7. trans R. Soc. Land. 16 16S6; 153-68; E. G. R. Taylor, The haven-finding art (London, 1971: 239-40); A. Aimit^gc, Edmcnd HaUey (London, 1966: 83-6), and C A. Ronan, Edmotid Halley, genius in eclipse (London, 1969: 79-80). Hobbs's notion that winds are a product of the combination ot the Earth's rotation with terrestrial obstacles is tjuite similar to Galileo's theory, and distinct from those ot Hooke and Halley, who attributed winds much more to differentials in density and temperature. This passage is a good example of the transformation of Hobbs's thought between the time of the papers submitted to the Roval Society and this present treatise. In the former, his thoughts on trade winds, etc., were presented as a relatively selt-contained speculation. Here they have been organized and subordinated within a more comprehensive and digested view of the relationship of the surface ot the Earth to the Moon and the tides. 80 Hobbs's views on madness once again convey his hostility to all kinds of astrology. For the following popular superstitions regarding the Moon see J. Brand, (.^seri'ations on popular antiquities, with the additions of Sir Henry Ellis (new imp., London, 191 3: 657—63); Keith Thomas, Religion and the decline of magic (London, 1971: 239, 296-7, 333-5, 610, 620, 649); R. Hunter and I. Macalpine, Three hundred years of psychiatry, i^3S—l86o (London, 1963: 285, 459, 480); and C. Plinius Secundus, The historie of the world, translated by Philemon Holland (London, 1635, l: 163, 488—9; 44; 2; 397). Such beliets had recently been satirized m Samuel 15utler's Hiidihras. For a contemporary survey of theories of the cause of menstruation in women secj. Fremd, Emmenologia (London, 1729; first, Latin, ed., Oxford, 1703: ch. ii, pp. 4-13). 81 For magnetic theories of the tides, see note 66. 82 A reference to the Cartesian theory of the tides, for which see M. Deacon, Scientists and the sea (London, 1971: 50, 52). 83 Figure 1 1 is lost, and has been reconstructed. 84 For Torricelli's (1608-47) experiment see the article by Mario Gliozzi in the Dictionary of scientific biography 12 [976: 438. 85 Hooke and Boyle were both involved in experiments ot this kind. Cf. The ivorks of the hon. Robert Boyle epitomiz'd bv Robert Boulton (London, 1709. 1: 384-5), and E. Mendelsohn, Heat and life (London 1964: 52-3). It is very likely that Hobbs's source here was J. I^rake, 'A discourse concerning some influence of respiration on the motion of the heart hitherto unobserved', which he would have read in Hallev's Miscellanea curiosa (3 vols, London, 1705, I: 173-204, 187-90.) 86 For a contemporary example of a diving bell, see the work ot Halley, especially 'The art ot living under water: or a discourse concerning the means ot turnishing air at the bottom of the sea, in any ordinary depths', Phil, trans R. Soc. Lond. 29 1716: 492-9- Hobbs is of course mistaken in believing that contemporary diving-bells cut oft the pressure ot the atmospheric column. 87 I have not been able to trace Hobbs's 'Monsiur'. For the development ot the barometer, see W. E. Knowles Middleton, The history of the barometer (Baltimore, 1964). Notes and References 137 88 Measuring chains had been standardized in seventeenth century England. The most (amous was Gunter's chain which was made of hard wire, and was lour poles in length, consisting of a hundred links. It was used tor surveying. The provision ot a count-wheel device tor a coach to measure distance travelled has a long history, being traceable back to Vitruvius. See A. W. Richardson, English land measuritig to iSoo; instruments and practices (Cambridge, Mass., and London, 1966: 109) and, for a contemporary account, James Moxon and Thomas Tuttell, A mathematical dictionary (Londi heaven. And God created great Notes ami Rejereitces 139 whales, and everv living creature that moveth which the waters brought forth abundantly after their kind and evcrv winged tow! after his kind and God saw that it was good. And God blessed them, saying. Be fruitful and multiply and fill the waters in the seas, and let fowl multiply in the earth'. 103 Figures i and S have been lost and reconstructed. 104 Figures i, 2, and 3 have been lost and reconstructed. 105 Figure 2 has been lost and reconstructed. 106 Figure 7 has been lost and reconstructed. 107 Hobbs's theory of the origin of strata on the sea bed as a result of natural processes bears some relation to Hooke's theory as set out in his Posthumous works (ed. R. Waller, London, 1705). 108 The Royal Exchange was built of Portland Stone. See T. F. Reddaway, The rehuiUin^ of London after the Great Fire (London, 1951: 124-7, 266—77). It was designed by Edward Jarman, built 1667-9, ind destroyed by fire in 1838. It is possible that Hobbs took particular notice of the Exchange while visiting the adjacent Gresham College. 109 Cf. the map of Weymouth and district which I have appended. Hobbs's remark about the pebbles formed from lumps of clay fallen from the cliffs is observant and accurate. The clay in question is very probably Oxford Clay. no Whitenore Fort most likely refers to the Nothe Fort, or The Knoll, or North Point, at the end of Weymouth Harbour, where fortifications had existed at least since Elizabethan times. It is unlikely that Hobbs is referring to the White Nose, or White Nothe, which is a head almost equidistant between Weymouth and Lulworth, and hence about seven miles away from Weymouth. 111 Genesis i; 9: 'And God said Let the waters under the heaven be gathered together into one place, and let the drv land appear, and it was so'. 2 Peter 3:5; 'For this they willinglv are ignorant of, that by the word of God the heavens were of old, and the earth standing out of the water and in the water'. 112 A reference to Purbeck Marble. 113 2 Peter 3: s quoted once more. 114 For contemporary debates on spontaneous generation see note 12. 115 Genesis i; 24. 116 About here there is a marginal note in a later hand: 'Stowes Annals'. The reference is to John Stow, Annates of England (London, 1592), probably referring to p. 1219. For the late seventeenth century debate on spontaneous generation, sec note 12. 117 Many writers who asserted spontaneous generation believed that the Earth was more fertile for bringing forth creatures in its earlier days, and that the first species were larger than current ones. Similar beliefs are present throughout Buff on 's Histoirc tiaturelle (Paris, 1 749- 1 804). 140 The Earth Generated and Anatomized 118 The worthy is almost certainly Wilham Harvey, who has a passage similar to this at the end of Exercise 3 of his Exercitationes de generatione animalium (London, 165 1). For explication f/! K. D. Keele, William Harvey, the man, the physician and the scientist (London, 1965; I92f). It is very likely that Hobbs obtained much ot his knowledge about contemporarv generation theory from Dr George Garden 'A discourse concerning the modern theory of generation' which he would have read in Halley's Afca-//.iHf.j airiosa (London, 1705, l; 142-54). 119 Hans in Kclder: Dutch for 'Jack in the cellar', i.e.. colloquial tor an unborn child. Hobbs is of course utterly opposed to preformationism. His discussion of doctrines ot generation seems to echo Dr G. Garden, 'A discourse concerning the modern theory of generation', reprinted in Ha.\\ey'% Miscellanea curiosa (London, 1705, l: 142-54). 120 Cf. P. C. Ritterbush, Opertiires to hiology (New Haven and London, 1964: 88—99). 3nd N. E. Nordenskiiild, The history of hiology (New York, 1929: 197). 121 Lettas: not identified. For the debate about the nutrition of plants and spontaneous generation see J. Woodward, 'Some thoughts and experiments concerning vegetation', which Hobbs would have read in Hallcy's Afet'/ZiiHca airiosa (London, 1705, I: 205—44). 122 Hobbs had evidentlv not seen the letter on this subject to William Cole printed at the end ot Robert Hooke's Lampas, or description of some mechanical improvements of lamps and waterpoises (London, 1677). Cole's letter was entitled 'An observation about the seed of moss'. His reference to ferns is pp. 47—48. 123 Figures i and 8 are missing and have been reconstructed. 124 One of many indications that Hobbs does not accept the short time-scale entailed by a literal reading of the Bible. 125 An obvious attack on Thomas Burnet's Telhiris theoria sacra (London, 1681 and 1689: English translation, 1684 and 1690). For the problem of the function of mountains in the system of nature as understood in the late seventeenth century see G. L. Davies, The earth in decay (London. 1969: chs i and ii); M. H. Nicolson. Mountain gloom and mountain ^lory (Ithaca, New York, 1959: chs i-iii). Yi-fu Tuan, The hydrologic cych- and the wi.dom of (jod (Toronto, 1968). 126 For the great comet of 1680, see C. A. Ronan, Edmond Halley: genius in eclipse (London, 1969; 59f.). For Halley's views of comets as possible agents of geological destruction, see E. F. MacPike, The correspondence and papers of Edmond Halley (London, 1932: 234), and for W. Whiston's similar ideas, see his New theory of the earth (London, 1696). 127 Malachi 4: i: 'For behold, the day cometh, that shall burn as an oven'. 128 For contemporary debate about the likely end of the earth see E. L. Tuveson, .Millennium and Utopia (Berkeley, 1949). 129 Note again the implication of a high time scale. 130 For contemporarv debate on the problem of the origins of rivers see A. K. Biswas. History of hydrology (Amsterdam, 1972); G. L. Davies, The earth in decay (London, 1969: chs i— ii; and for a contemporary account see above all R. Plot's De origine fontium (Oxford, 1685). 131 For contemporary debate on the problem of the age of the Earth see S. E. Toulmm and J. Goodfield. The discovery of time (Harmondsworth, 1967: chs iii and iv); H. Meyer, The age of Notes and References 1 4 1 the world (Allcntown, Pa, 195 1); F. Haber, The age of the world: Moses to Darwin (Baltimore, 1959; chs i-iii). 132 2 Peter 3: S. 133 Genesis r. 16: 'And Gcxl made the two great lights; the greater light to rule the day, and the lesser light to rule the night; he made the stars also'. 134 Hooke had employed similar arguments from fossils to press for a high antiquity for the Earth. See his Posthumous u'orhs (ed. R. Waller, London, 1705). 135 Figure 3 is missing and has been reconstructed. 136 Shaston is Shaftesbury. In fact the trees were presumably not petrified, but rather dated from historical times. For although fragments of lignite would be found in the Kinimeridge Clay near Shaftesbury (which is often carbonaceous), trunks of trees of the size quoted by Hobbs would not be found in the rock beds themselves. Joshua Childrey and John Aubrey had visited in 166S a hill near Shaftesbury which contained plenty of Cocklestones. See A. R. and M. B. Hall, eds, Tlie correspondence of Henry OUenhiirg (Madison, 1968, 5: 456). 137 It IS not clear whether Hobbs had visited the repository of Gresham College {i.e., the Royal Society), or had merely seen Nehemiah Grew's Mnsaeutn Regalis ■'^ocietatis (London, 1A81) where petrified wood is mentioned on pp. 265-74. 138 For background to the problem of the Deluge, see D. C. Allen, 'The legend of Noah', University of lUinois studies in language and literature 33 1949. Hobbs's almost total dismissal of discussion of the Deluge is most unusual for its time. 139 Robert Plot's discussion of Fairy Rings is in his Natural history of Stafford-shire (Oxford, 1686: 9-20). John Aubrey's Natural history of Wiltshire (ed. J. Britton, London, 1857: 37) contains a similar discussion. 140 The chief theorist of the view that all rocks were dissolved at the Deluge was John Woodward in his An essay towards a natural history of the earth (London, 1695). 141 Genesis 8; 4: 'And the Ark rested in the seventh month on the seventeenth day of the month, upon the mountains of Ararat'. 142 This is a slightly surprising statement, for till now Hobbs has expressly been confining himself to what is naturally possible. Now he seems also to rule out the possibility that the Deluge could ever miraculously have had the effects which Woodward and others supposed. 143 Psalm 14: 1. 'The fool hath said in his heart. There is no God. They are corrupt, they have done abominable works, there is none that doeth good'. 144 For the extensive contemporary argument over the supposed rise of 'atheism' cf. R. L. Colie, Light and Enlightenment (Cambridge, 1957); M. C.Jacob, The Newtonians and the English Revolution, 16^0—17,^0 (Hassocks, Sussex, 1976); J. Redwood, Reason, ridicide and rc/iijii'K (London, 1976). 145 For discussion of the possible date of composition of the Postcript, see p.31. 146 A very large number of maritime manuals were produced in Dutch with the title De l.ichtende Colomne ofte Zee-Sjdegel throughout the seventeenth century. The tirst 1 have been 14^ Thf Earth Generated and Anjtomi::eJ able to trace in England (The hghtiiinf; colomne or sea-mirrcur) was prnited in 1654 at Amsterdam (there is a copy at the National Maritime Museum at Greenwich: I am particularly grateful to Miss Margaret Deacon for her help in locating and describing this). Thereafter Li^htiiin^ cohimns appeared regularly in English, every few years, and it is perhaps surprisuig that Hobbs had not seen one earlier. For a listing ot English Lit^htnim; whimns see the detmitive work of I. C. Koeman, Atlantes neerlamlici (Amsterdam. 1970, 4; xxv-xxxviii). Koeman has not been able to trace, however, a copv survivnig ot the 1701 edition. The title page of a 1692 edition is eloquent of the contents: The / Lightning Columne, / or / Sea-Mirrour, / contaignmg the / Sea Coasts of the Northern and Eastern / Navigation: Setting forth in divers nccessairc Sea-Cards, all the Ports, / rivers, haves, roads, depths and sands, very curiously placed on its / due Polus height furnished. With the discoveris of the chief countries / and on what cours and distance they lay one from another. Never / theretofore so clearly laid open, and here and there very diligently / bettered and augmented for the use of all seamen. / As alsoo the / situation of the northernlv countries, as islands, the Strate Davids, the isle of Jan Maven, Bears Island, / old Greenland, Spitsbergen and Nova Zembla: adorneth with many sea-cards and discoveries. / Where unto is added a brief instruction ot the art of navigation, together with / new tables of the suns declination, with an new almanach. / Gathered out of the experience and practice of divers pilots and lovers of the famous art of navigation. / At Amsterdam, Printed bv Casparus Loots-man, Bookseller in the Loots-man, upon the Water. Anno 1692. With Privilege tor Fiftheen Jears. (see Koeman 4: 254). For a good discussion of the evolution of the sea atlas see A. H. W. Robinson, Marine cartography in Britain (Leicester, 1962: ch. ii). 147 Hobbs's map ot the world is, unfortunately, lost, and his descriptions ot it hardly enable one to make a hvpothetical reconstruction. Presumably it looked something like a hvbrid between Halley's map of the trade-wmds and his 'Chart of the tides in the Channel". For the later development of the attempt to plot the times of tides across the globe, and to understand their regularities and laws, cf. W. Whewell, Essay towards a first approximation to a map of cotidal lines (London, 1S33) — see pp. 226—7 for the irregularities of the tides at Wevmouth. 148 Herman Moll (d. 1732) was a Dutch geographer, working mainlv m Britain, who engraved maps for a large number of early eighteenth century geographical works, abiive all The compkat geographer, 3rd ed. (London, 1709), and A riew of the Coasts, Countries and Islands within the limits ot the South Sea Company (London, 1711). 149 John Seller was the author ot several works dealing with the coastal geography of Hritain, above all the Atlas maritimus (London, 1675) and The coasting pilot (London, 1673). See A. H. W. Robinson, Marine cartography in England (Leicester, 1962: 38-42 and Appendix J). 150 John Thornton was a geographical and navigational author. His works include the Atlas maritimus norus (London, 1 708); and A correct table of the latitude and longitude of the most noteable capes (London, 1706). Notes ami References I43 151 William Dampicr (1652-1715), bucancer, pirate, navy captain and circumnavigator, and the most popular writer ot naval voyages of his age; author in particular of A new voyai^e round the world (London, iftgy). 152 Woodes Rogers (d. 1732), sea captain and governor ot the Bahamas. Author above all of A cruising voyitge iiround the irorld (London, 1712). 153 This IS of course not true: the motions ot the tides are intmitely more complex, and still today hardly understood. 154 See Captain William Dampier, I'oyages and descriptions in three parts. Pt. lii. A discourse of trade winds, breezes, storms, seasons of the year, tides and currents of the Torrid Zone throughout the world; with an account of Natal in Africk, its products, negro's etc. (London, 1699: gotf.). 155 lhi'^■ 156 Hallev's 'maps' referred to here would be his 'Chart of the tides in the Channell' (London, 1702); 'An historical account of the trade winds and monsoons', Phil, trans R. Soc. Lond. 16 1686: IS3-68; his 'Isogonic Map of the Atlantic' (London, 1701); his 'Isogonic Map of the World' (London, 1702). There is an excellent discussion of the theoretical importance of Halley's maps in Norman J. W. Thrower, 'Edmond Halley and thematic geo-cartographv', m N. J. W. Thrower and C. Glacken, The terraqueous globe (Los Angeles, 1969), which also contains an admirable bibluigraphy on Halley. Halley's chart of the English channel is reproduced and discussed in Derek Howse and Michael Sanderson, Tlie sea chart (Newton Abbot, 1972; 80-1). 157 Figure IIL Plate 3, is lost, and 1 have not telt confident to reconstruct it. 158 Figures I and IL Plate 3, are lost and I have not been able to reconstruct them. 159 This is necessarilv rather obscure in the absence ot Hobbs's maps. 160 See note 157. 161 See note is6. 162 The tides around Weymouth are notoriciusly complex, partly due to Chesil Bank. 163 See note i,S7. 164 See note 154. 165 hi the Gulf of Mexico. 166 San Miguel m the Gulf ot Panama. 167 In the Cape Verde Islands. 168 See notes 157 and 158. 144 The Earth Generattil iim/ Aiialomiifd D CLAY ^ (&)^ E STONE ^ ® <& @) FIGURE I Mentioned in Hobbs's manuscript on page i (in this edition: page 39), 15 (48) 16 (49), 91 (97). and III (107). The original diagram is lost and has here been reconstructed. It does not seem to refer to any specific location. Its chief aim is to demonstrate that strata are found parallel to each other and generally parallel to the horizon. In connection with this diagram. Hobbs mentions (MS 91; this edition. 97) that fossils of 'Oysters, Wrincles, Cockles Sic' are found within the strata. Figures 145 420, or 'several hundred feef ( (B S> (S^ ^ F F C3 © 45> (S2o Sea Level FIGURE 2 Mentioned in Hobbs's Manuicnpt on pages 2 (this edition: 39). 16 {49), 17 (50), 91 (97). and 93 (97). The diagram is lost and has been reconstructed. Hobbs is expressly relerring to the cliff scenery of the Isle ot Portland, 'soe many hundred leet higher than the Ocean', his most precise estimate being 420'. Hobbs notes that the strata to which he is referring extend downwards from the surface for between 60' and 100'. He is clearly describing Portland stone, and points out that it is highly fossiliferous. It is underlain by Portland sand and Kimraeridge clay, neither of which is well exposed — partly because rubble from the quarries was doubtless obscuring the lower strata. Landslips caused by the failure of the lower soft beds, thereby bringing down blocks of Portland stone, were also significant in this effect. The barren bed F.F.F. might refer to a number of beds within the Portland stone such as the Whit bed (7-15' thick) which is a limestone largely composed of tiny shell fragments that might have escaped notice. Identification of the bed F.F.F. as the Whit bed is not certain, and there are other possibilities, though the Whit is considered an excellent freestone and Hobbs would probably have had many opportunities for observing it. At the depth of 60—100' which Hobbs mentions, he is undoubtedly referring mostly to the Portland stone, but as the Purbeck beds overlie the Portland stone on the Hill, there is little doubt that Hobbs included them in his estimate. 146 Till- Earth Generated ami Aiialomized FIGURE 3 Mentioned in Hobbs's Manuscript on pages i (39), 15 (48), 16 (49), 17 (50), 18 (50), 91 (97), 119(112). This diagram is lost and has been reconstructed. It is designed to show that strata are generally found parallel to each other, and in hilly country parallel to the line of the hills. Hobbs notes how strata run unbroken, at an angle of perhaps 20 or 40° along one side of the hill (i.e., dip slope) but are broken off sharply along the other side {i.e. scarp face). He notes how materials (including trees) become detached from near the top of the scarp face and tumble down to form mounds of rubbish. Presumably this diagram illustrates his discussion on p. 120 (112) of finding tree trunks having tumbled down from a high hill near Shaston (= Shaftesbury). In the Shaftesbury area there arc several beds which Hobbs might have had in mind when referring to his hill. The detachment of bed A suggests that it was a competent (geological speaking) bed such as limestone underlain bv a softer sand or clay. There seems to be no definite way of discovering which hill and strata Hobbs had in mind. In his discussion of how a knowledge of the geometry of stratification can help discovery of mines, etc., Hobbs argues that if a seam is found at 2B, 130' down from G, one can predict that the same seam will be found at Bi, three or four feet down from B (by which he presumably means under the top-soil). Figures 147 FIGURE 4 Mentioned in Hobbs's manuscript on pages i (39), 16 (49), 93 (9S). This diagram has been lost and is here reconstructed. Hobbs uses this diagram to illustrate his contention that strata are basically found parallel to each other and to the horizon, and that this can be the case even with land considerably elevated above sea level. I assume that he particularly has in mind the topography of cliffs. Hobbs does not make it clear what relation he imagines the elevated land to bear to the surrounding terrain. Whether Hobbs considered that the elevated portion achieved its position by the action ot faults or the removal of surrounding rocks is uncertain. 148 The Earth Generated ami Anatomized FIGURE i Mentioned in Hobbs\ manuscript on page 16 (49). This diagram has been lost and is here reconstructed. In It Hobbs embodies his denial that m hillv country the strata ever run completely parallel to the three-dimensional topography. He argues that the structure of hills is always as found in diagrams 3 and 4. This serves to illustrate his conviction that hills have been created by elevation from below, rather than by any kind of precipitation from above. Elevation from below, Hobbs believes, must necessarily result in upland areas possessing at least one jagged end and broken face (as in a cliff). Hobbs's denial of this possibility shows that he had lui real awareness i)t the anticlines of Dorset. Figures 149 FIGURE 6 Mentioned in Hobbs's manuscript on page 25 (ss). This diagram has been lost and is here reconstructed. It illustrates Euclid h. 3, pro. 35. For explanation see footnote 55. FIGURE 7 Mentioned in Hobbs's manuscript on pages 16 (49) and 92 (97). This diagram is lost and has been reconstructed. It is intended bv Hobbs to demonstrate an impossibilit\' 111 Nature — i.e., the strata found m no order whatever. It is not clear whether Hobbs had in mind a situation in which small particles of different rock types would be accumulated chaotically, or whether he was thinking of small wedges ot strata abutting against each other at random angles. His aim is to show that strata are not the product ot any kind ot chemical precipitation, or the remains ot the Deluge, or the remnant of some other disordering force in Nature, but rather have been gradually formed on the sea-bed, and subsequently regularlv and gentlv uplifted. IjO The Earth Generatfii ami Anatomized Crest to crest of wave: 6-700 miles 5400 miles FIGURE 8 ML'titioncd in Hobbs's manuscript on pages i (39), Si (91). 85 (92), gi (97), 1 1 1 (107). This diagram has been lost and is here reconstructed. In his text Hobbs reters both to a Figure 8 and to a Figure VIII. I have assumed tli.it he had in mind the same diagram, and have here combined the information which relates to both of them. Hobbs is chiefly concerned in this figure to demonstrate two points: [a) that the shell, or crust, of the globe is very thin indeed as a traction ol the diameter of the globe itself. His estimate is the — reasonably accurate — one often or twelve miles, which, as he says, can only properly be represented on his diagram by the thickness of the stroke of a pen. He is concerned to show that strata within this shell are horizontal. He infers the thinness of the shell from the shallowness of the sea in the English Channel, and bv analogv with the orhh minor. (/)) that at the two poles of the globe are to be touiid niusculous, cordious areas, whose pulse creates the motion of the tides. On pages 134-8 of the manuscript (in this edition, pages 120-123) Hobbs discusses the wave motion by which this pulse of the tides is communicated from the poles to the equator (being conveyed some 600—700 miles per tide, and diminishing towards the equator). He seems to have illustrated this bv his map, which I have not endeavoured to reconstruct. I have however inserted an indication of such a wave motion emanating from the poles as an indication of what Hobbs mav have had m mind. 151 PLATES Please note that Plate I is a facsimile ot Hobb's Title Page and is to be found on page 36 opposite the transcription. 152 The Earth Generati'd ami AtiaiomizeJ 2 " W C- »* r r. c ? ,- ^' o 0 -^ ^ - r •! X V. -. O ^ - ;, !* ^ 'lev,, -t-*^ e ? ^ _ . zz r. tJ r. ' " U-, H >- '^ c -n J= ^ _£ r^ _c u. Q X rr ZJ ■^ o nj •y. un ftf) ^ 3 ^ Cit-C u^ n hf) 1> r: rrt O- rt tJj g n > H i-> D C O u 1) -r: c u n -T3 4= u- :;; 0 o o H -g Plates 153 :q| < ■| ^ j ,^ 1 ^^ >. •^ N. r 1 HH ' vj ^1 ! 3 ' 1 ^\ •5^ "s. ' * :5 1 •• -. r f ^ « -i- 1* i i 5 Ji^AA. 11 1 ■w^^ 1 . ^ '< 11 ^b^ ■ L V ' U ^^^ J'>v >•>. ^^ . B ^>4^ ,/«*S ^\ < K n • c a. c "^ -^ n ^ aj 1^ CO ^^ 3 — o w b 154 The Earth Geiu-rateJ aiiJ Anatomized X (- < s -a < £ 2 •c I at H ■- N Kl D r ^ O -r, ^ S^ , >■ 1? > o w ^ ■N __, $'^ V c \^ Cu ri < C- \ f:^ ^ C '-< --!: "-t c ^ s .^ v^ -^ _r: H - Ua ^ ^S ^. ., f^ ^ 3 J5 V :: >- H aa PLires 155 PLATE V 'A New and Correct Chart of the Ch.innel between England and France with considerable Iniprcwements not extant ni any Draughts hitherto publish d, shewing the Sands, Shaols, depths of Water and Anchorage, with y' flowing ot the Tydes, and setting of the Current as ohserv'd by the learned D' Halley. sold by Mount and Page on Tower Hill' [ 1702]. Halley's Chart of the Channel was undoubtedly much used by Hobbs, tor it recorded both the times ot the tides, and also the depths of the Channel. The legend reads: In this Channell Draught, the smaller Figures are the Depth in Fathoms, The Litteral or Roman Figures shew y'^^ Hour of High-Water, or rather y" End of the Stream that setts to y*^^ Eastward on y*^ Day of y"' New and Full Moon. Add therefore y' time of the Moons Southing or Northing to y^ Number found near y^ place where yo' Ship is, &: y' Sum shall show you how long y' Tide will run to y^ Eastward. But if it be more than 12 subtract 12 therefrom. The Direction ot y^ Darts shew upon what Point of y' Compass y^ Strength of y' Tide sets = All Masters of Ships, and others, who shall have opportunity to observe y' Depths, with Certainty m respect of y' Place, are desired to communicate them to v' Publisher hereof. 156 The Earth Generated and Anatomised Plates I.S7 In :hij OhlJI/uV l>rainfh{' ft>, ••nalLr f,^,,rti .irr iji, ])rf,il, „i -falhi'"!.' 1)1. l.ltlff.tl pr Kimuin ft^a-tj ih-n- v 'JUjur (if'ni^h -ff'l/f. it r.ilher ,'/ En. I -/ //(.■ S^etvt thattfttt Ur }/ £0^71-0 rd rt, ^ Ji,n, of i, !^en- ^ 'fnUiMoP7l..i.t, U lh.n- uf S - -s -PI o o 2 ; c 5 u 60 5 -1 S 5 ^ -a 3 J H -^ - ^ ^ § ^ S •-^. --> rj ">, t; t: -S Ji ° -2 = rt I ^ .-. rt f1 ~ u g - rt :j o _c =: •J U -J C c on , '^ 3 - „ ^ 3 ij o ■^ a. r ^ > o « "^ , ■ O "X, o ^ s = w a._v! o t: J! '5 > -s n so > 5 H < -S ^ c: - 5 Bulletin of the British Museum (Natural History) The Journal of Peter Good Gardener on Matthew Flinders Voyage to Terra Australis 1801-03 Phyllis I. Edwards (Editor) Historical series Vol 9 30 July 1981 The- Bulletin of the British Museum [Natural HislcrY) . instituted in 1949. is issued in four scientific series. Botany, Entomology. Geology (incorporating Mineralogy) and Zoology, and an Historical series. Papers in the Bulletin are primarily the results of research carried out on the unique and ever-growing collections of the Museum, both by the scientific statt ot the Museum and by specialists trom elsewhere who make use of the Museum's resources. Many of the papers are works of reference that will remain indispensable for years to come. Parts are published at irregular intervals as they become ready, each is complete in itself. available separatelv. and individually priced. Volumes contain about 300 pages and several volumes mav appear within a calendar year. Subscriptions may be placed for one or more of the series on either an Annual or Per Volume basis. Prices vary according to the contents of the individual parts. Orders and enquiries should be sent to: Publications Sales. British Museum (Natural History) Cromwell Road. London SW7 .sBD, England. c WorU List abbreviation: Bull. Br. Mus. nat. Hist. (hist. Ser. © Trustees of the British Museum (Natural History), 198 1 ISSN 0068-2306 British Museum (Natural History) Cromwell Road Historical scries London SW75BD Vol 9: 1-2 13 (Complete) Issued 30 July igSi The Journal of Peter Good Gardener on Matthew Flinders Voyage to Terra Aus traits 1801-0 J Edited with an introduction by Phyllis I. Edwards Britisli Museum (Natural History) Cromwell Road, London SW7 8BD Bulletin of The British Museum (Natural History) Historical series Volume 9 (Complete) London 1981 © Trustee of the British Museum (Natural History), 1981 ISSN 0068-2306 Published bv British Museum (Natural History) Cromwell Road, London SW7 5BD Bull. Br. Mm. Nat. Hut. (hist. Ser.) 9: 1-213 (Complete) Issued :•(() Jidv 198 1 Printed in Great Britain by Spottiswoode Ballantvne Ltd., Colchester and London Contents Foreword ........... 5 InirocliKtion .......... 7 Textual iiurodiK'tion ........ 31 Transcript ol main journal 33 Cliriinoliig\' .......... 123 Notes 127 Fatsiniilc ot variani ](iiirnal ....... 133 Facsimile of seed lists ........ 143 Facsimile ol records oi the leceipl ol seed at the Royal Gardens, Kew 197 Rclciciu cs cuul Bil)li()t;rapliv ....... 207 Index 209 Foreword The Peter Good Journal came into the possession of tlie British Museum with the manuscripts of Robert Brown (1773-1858), first Keeper of the Department of Botany (initially named the Banksian Department). It was transferred, in 1881, to the newly established British Museum (Natural History) at South Kensington. Associated with ihe Journal are copies of the seed lists Good sent to Sir Joseph Banks (1743-1820) and a slightly different version of part oi hhjournal. Although the Good Journal is mentioned by J. Britten and G. S. Boulger in their A biographical index of deceased British and Irish botanists (2nd ed., 1931), I have found no other reference to it. From reading only a few pages of the Good Journal it is evident that it is of both scientific and historical importance and a valuable supplement to Matthew Flinders own published account A Voyage to Terra Australis. 1814. I wish to thank the National Trust of Australia for allowing me to use a photogiaph ol their portrait of Matthew Flinders; R. T. Sexton to use his artist's impiession of H.M.S. Investigator; H. K. Austin to reproduce two official plans of the ship and P. S. Green, Keeper of the Herbarium, to reproduce the records at the Royal Gardens (Royal Botanic Gardens), Kew and the Society for the Bibliography ol Natural Histoid to reproduce the map. I wish to acknowledge the valuable assistance of J. Mahoney, Department of Geology and Geophysics, University of Sydney; Dr R. W.Johnson, Director, R. Henderson and N. Byrnes, Queensland Herbarium, Indooroopilly, Brisbane; K. N. Kenneally, Western Australian Herbarium, Perth; Dr J. H. Calaby, Department of Wildlife Studies, C.S.I.R.O., Canberra; J. Laycock, Australian Institute of Aboriginal Research, Canberra; J. R. Rourke, National Botanic Gardens of S. Africa, Cape Town; M. Deacon and C. Terrell, National Maritime Museum; H. J. Bilcliffe, Royal Geographical Society; Captain Wemyss, Wemyss Castle, Fife and Dr C. Nelson, National Botanic Gardens, Glasnevin. I am also much indebted to the following members of the staff of the British Museum (Natural Histoid): A. Wheeler, D. Goodwin and I. C. T. Galbraith, Department of Zoology; M.J. Rowlands, Head, Department of Library Services, and the staffs of the Zoological and Botanical Libraries. Goodia iatijolia. Goodta, a genus described in honour of Peter Good by R. A. Salisbury, and illustrated as Plate 4 1 in his Paradism Londonensh, 1805-08. Introduction In the seventeenth centui7 various Dutch navigators had touched the west and north-west coasts of Australia. Luis Vaez de Torres (d. 1613) had sailed through the stiait which bears his name. Abel Janszen Tasman (c. 1602-59) had discovered southern Tasmania. Then as a result of a Royal Society expedition the real discovery of Australia began when Captain James Cook (1729-79) on his first voyage sailed along the east coast from Point Hicks to Cape York. In February 1768, the Royal Society addressed a Memorial to King George III reciuesting facilities to enable them to observe the transit of the planet Venus on the 3 June the following year. This phenomenon can only be observed twice in a century, at an interval of eight years, and the obser\'ations made in 1761 had not been successful. The Society stressed that accurate observations would greatly contribute to the improvement of astronomy on which navigation so much depended. California was the Society's first choice from which to make their observations but the Court of Spain would not grant the necessary passport to allcjw a ship and the scientists to go there. The island of Tahiti, discovered by Samuel Wallis in H.M.S. Dolphin, in 1767, was their second choice. On the 25 August, 1768 H.M.S. Endeavour sailed from Plymouth with Captain Cook in command. The Admiralty gave Cook secret orders, only to be opened after the observations of the transit of Venus had been completed. These instructions were to sail southward, to latitude 40°S, in search of Alexander Dalrymple's great southern continent. This Terra Australis Incognita was believed to exist to counterbalance the land masses in the northern hemisphere. England was not alone in its endeavour to locate this southern continent, for when Cook arrived at the Cape, he learnt of the French expedition under the command of Louis Antoine de BougaiuNille (1728-181 1) in La Boudeuse, which had just left to sail south on what proved to be another famous voyage of circumnavigation during which Tahiti, the New Hebrides and the Solomons were visited. The expedition, however, failed to find the southern continent. Cook and de Bougainville were fortunate in that new aids to navigation were being developed. The refined sextant used by de Bougainville's astronc:)mer Pierre Antoine Veron enabled the immense size of the Pacific Ocean, east to west, to be reliably estimated. Although the Nautical Almanac, first published in 1767 and containing tables of lunar distances for evei^ three hours of Greenwich time, was of assistance in determining longitude, it was John Harrison's chronometer, first used by Cook on his second voyage, which enabled the precise determination of longitutle and mcani that the explorer venturing into the Pacific Ocean need no Plate 1 An l Sii Joseph Hanks In Sii I hoiiias Lawiciic c, PR. A. in the British Museum. INTRODUCTION longer be lost. He could know where he was, where he had been and could chart the most complicated of voyages. In April 1766, the Royal Society elected as a Fellow, a young man of 23, who was to play a most important role in the years ahead, in the discovery and economic development of newly discovered territories in the Pacific. His name was Joseph (later Sir Joseph) Banks (1743-1820). While at Oxford University Banks studied botany, then through 1766 flexed his naturalist wings on an expedition to Newfoundland and Labrador aboard H.M.S. Niger, a fishery protection vessel under the command of an old Etonian friend Captain Constantine John Phipps (1744-92). Banks returned to England bounding with enthusiasm for further such adventures; not for him the Grand Tour of Europe, fashionable among men of his social position. On the 15 February. 1767 he attended his first Royal Society meeting and perhaps heard, for the first time, of the projected voyage to observe the transit of Venus. In 1764, Banks had come into his inheritance with estates which brought him in a yearly income of £6000. With such an income he no doubt began to dream of some grand natural histoid expedition to lands as yet unknown. When the Royal Society finally chose Tahiti as the site for their observations his dreams became clothed in realiry and definite and detailed plans to participate in the voyage were obviously discussed, for in June 1768 the Society not only requested the Admiralty to have its observers conveyed to Tahiti but also to allow Mr Banks and his suite of seven on board the ship under the cuinniand of Captain Cook. His suite included Svdnev Paikinson (1745-71) as natural histoi7 painter and Daniel Carl Solander (1733-82), a brilliant pupil of the famous Swedish naturalist Carl Linnaeus (1707-78), as naturalist. The voyages of Cook and de Bougainville were something new in that they were both voyages of geographical and scientific exploration. The collections brought back on the Endeavour were the most extensive of any expedition up to that date and had treinendous scientific impact. Although Phillibert Commerson (1727- 73), the naturalist on board de Bougainville's Boudeuse, was extremelv diligent he was single handed; further the expedition had far fewer landfalls than those provided lor Banks and Solander on Cook's first voyage so that Commerson had tnuch less opportunity to collect. Although the overall scientific results of de Bougainville's expedition were less imporiant, it is hard to explain their comparati\e neglcd. The plant specimens were studied by Antoine Laurent dejussieu (1748-1836) for his famous Genera plantanim 1789 but have been largely ignored by those scientists involved in the history of cultivated plants in the Pacific area. The scientific impact made by this first Cook voyage was without doubt largely due to the dynamic personality of the young Joseph Banks, the increasingly important herbarium in his London home, 32 Soho Square, and his membership and later Presidency of the Royal Society. Banks had grandiose ideas for the publication, in folio size, of superbly illustrated floras of the areas visited. On the voyage Solander described the living specimens, in Latin, and according to the Linnean Method, and Parkinson made a rough sketch fiom which a finished drawing was later prepared. Herman 10 JOURNAL OK PETER GOOD Diedrich Sporing (b. 1730), Banksian amanuensis on the voyage, began the transcription of Solander's descriptions arranging these in Linnean order to form floras of the areas visited. After the voyage other amanuenses completed the task. These floras would have formed the basis for the text. During the earlv part of the voyage Parkinson made two hundred and eighty finished drawings. The extensive collection of plant material in New Zealand and Australia did not allow him to continue to do so. As he died on the return journey Banks had to employ five artists, over a period extending to 1785, to make some six hundred and sixty finished drawings from Parkinson's sketches. Banks then had some 742 engravings made of the finished drawings. I have discussed elsewhere (Edwards, 1978) why I consider these volumes never materialised. Naturally for Solander it was a tragedy. After his sudden death in 1782 others were able to consult and use his manuscripts and not always with due acknowledgement. Botanical science, so richly enhanced by the collection of some one thousand three hundred new- species and one hundred and ten genera, was debarred tfie final fruits of Solanders painstaking labour. Captain Cook's second voyage, 1 7 72-75, was designed to prove, one way or the other, the existence of the supposed Terra Australis. To this end Cook circumnavigated the globe as far south as human endurance would permit. In his two sweeps of the Pacific he discovered new islands and for the first time charted the exact locality of many others. In fact, on Cook's charts were recorded nearly every anchorage that could be of strategic use to the Admiralty. Further he demolished everv' shred of evidence for the existence of the great southern continent. The natural history exploration associated with this voyage was, in the end, financed by the Admiralty. Banks, who had engaged an even larger suite of assistants withdrew at the last moment as the more commodious accommodation he had demanded on H.M.S. Reiolution had to be removed because it made the vessel totally unseaworthy. The Admiralty, on the Royal Society's recommen- dation, appointed as naturalist John Reinhold Forster (1729-98) who took his eighteen-year-old son George Adam (1754-94) with him as assistant. When they reached the Cape they decided to engage Anders Sparmann (1748-1820). a Linnean pupil, who had travelled to China with the .Swedish East India Company in 1765-67 and who was an able botanist. The botanical collections made on the voyage were not as extensive as on Cook's first voyage mainly because there were far fewer landfalls. Sparmann and George Forster were largely responsible for recording the botanical results, and J. R. Forster the zoological and ethnographical ones. A brief stay, in January 1777, was made in Ad\enture Bav, Van Dienien's Land (Tasmania) on Captain Cook's third voyage. Dr William Anderson ( 1750-78) the surgeon on the Resolution was an enthusiastic and competent naturalist. He made descriptions, in Latin, of animals and plants that he considered new to science. The four new plant genera were later described as Eucalyptus, Goodia, Correa and Bauera. The other vessel, the H.M.S. Discovery, had on board a voung man knowledgeable about the plants growing in the London nursery gardens, David INTRODUCTION 11 Nelson (d. 1789), who Banks employed to collect herbarium speciinens and seeds for the Royal Gardens. It is interesting to note that Charles Louis L'Heritier de Brutelle (1746-1800) described the genus Eucalyptus from a tree brought back by Anderson and grovsni on at the Royal Gardens, Kew and a dried specimen collected by Nelson. Nelson visited Adventure Bay again in 1789 as the gardener aboard the ill-tated Bounty expedition of Captain William Bligh (1754—1817). Anderson's specimens unlike those of Nelson were not incorporated into the Banksian herbarium and suffered neglect before the worthwhile remnants were rescued byjames Britten ( 1846-1924). In 1791 Captain George Vancouver ( 1 758-98), after leaving the Cape of Good Hope on his voyage in the Discovery to north-west America from 1791-95 sailed along the southern shore of New Holland (Australia) and named King George Ill's Sound. His surgeon, Archibald Menzies (1754-1842), an able naturalist, made the hrst collection of plants from that area. In the following year Admiral Joseph Antoine Bruni d'Entrecasteaux (1739-93) set sail in the La Recherche in search of the Fiench expedition, which left France in 1785, under the command of Jean Fiangois cfc Jalaup La Perouse and likewise made the south-west corner of Australia and followed the coast of the Great Australian Bight for some hundreds of miles. Jacques J alien de Labillardiere ( 1755-1834) the botanist on board the La Recherche inade collections, on two separate occasions, in Van Diemcn's Land. There were two accounts of the Australian flora published prior to the Matthew Flinders voyage. A specimen of the botany of New Holland byjames Edward Smith (1759-1828) published in 1793-95 was an account of the specimens and water colour drawings sent to him by John White (d. 1831.'), Surgeon General in Botany Bay, from f 788-95. In some instances he was able to supplement the data obtained from the herbarium speciinens by consulting living specimens growing in a number of private gardens. In fact this volume was intended for those gardeners already cultivating Australian plants. The other work was the Nova Hollandiae plantarum specimen of Labiilardiere, published in two volumes, 1804-6, and based both on his own collections and those of David Nelson which had already been described. Through the late 1790s Sir Joseph Banks had discussions with the Admiralry regarding their plan to send a further expedition to New Holland. On 15 May, 1798 Banks wrote to Under SecretaiT King We have now possessed the country of New South Wales more than ten years, and so much has the discovei^ of the interior been neglected that not one article has hithei to been discovered by the importation of which the mother country can receive any degree of return for the cost of founding and hitherto maintaining the colony. It is impossible to conceive that such a body of land, as large as all Europe, does not produce vast rivers, capable of being navigated into the heart of the interior; or, if properly investigated, that such a country, situate in a most fruitful climate, should not produce some native raw material of importance to a manufacturing country as England is. Mr Mungo Park — lately returned from a journey in Africa, where he penetrated farther into the 12 JOURNAL OF PETER GOOD inlaiul than any European before lias done by several hundred miles, and discovered an immense navigable river running westward, which oHers the means oi penetrating into the interior of the vast continent . . . — offers himself asa volunteer to be employed in exploring the interior of New Holland, by its rivers or otherwise as may in the event be found most expedient ... He knows geography enough to construct a map of the countries he may visit, draws a little, has a competent knowledge of botanv and zoology, and has been educated in the medical line. [Historical Records New South Wales 3 1 895 : 382-383.) On 10 July, 1799 Governor John Hunter (1738-1821), of Sydney wrote to the Duke of Portland, Home SecretaiT Permit me, my Lord, to observe that altho' a thorough knowledge of the interior of this countiT is much to be desired, the gentleman designed to explore it would have found difficulties to surmount which I fear his experience in the interior of Africa could have given but little accjuaintance with. The idea suggested by Sir Joseph Banks is in my judgment the only practical means of gaining an early knowledge of this immense country . . . And I am of the opinion . . . that a knowledge not only of the interior, but of its sea coast, have been considered by me as objects of consequence ... by entering with a vessel the innumerable appearances of harbours which were observed and carefully marked by . . . Cook, excursions could be made from them, particularly where there mav be extensive rivers or arms of the sea. (Historical Records New South Wales?, 1895:693.) A third suggestion came from Matthew Flinders (1774-1814). Flinders had first arrived in New Holland, on H.M.S. Reliance, in 1795. With the Surgeon, George Bass (d. 1812), he began to explore the coastline in the vicinity of Port Jackson. In 1798, Bass, in a whale-boat named Tom Thumb, made the epic journev which led to the discovery of the Straits which bear his name. Later that year and into 1799 Flinders and Bass, in the Norfolk, sailed right round Van Diemen's Land. On Flinders" return to London he wrote to Sir Joseph Banks on 6 September, 1800, oudining his plans for completing the discovery of the coastline of New Holland or Australia as Flinders eventually named this new continent. 'It cannot be doubted' wrote Flinders, 'but that a very great part of this still extensive country remains either totally unknown, or has been partially examined at a time when navigation was much less advanced than at present. The interests of gcogiapliv and natural histoid in general, and of the British nation in particular, seem to require, that this only lemaining considerable part of (he globe should he llioroughly explored". Flinders also suggested the im|)oilance of exploiing the Strait between New Holland and New Guinea and of investigating the mineralogy of the country (Mitcfiell Libran, Sydney, Brabourne Papers 20: 59 et seq.i. By 12 Decemtjer, 1800 Lord George John Spencer ( 1 758-1834), a memfjer of the Cabinet, agreed the details of such an expedition, to be led by Flinders as suggested by Banks and which was to include the provision of a naturalist. Plate 2 A poi irait ot Matthew Flinders by Will Longstall reproduced by kind permission of the National Trust ol Australia. 14 JOURNAL OF PETER GOOD botanical and ?ooI()gical painter, landstape and figure painter, and a gardener (Mitchell Libran', Sydney, Brabourne Papers 11 A: 79-84). Flinders had proved his navigational and hvdrographical skills in the expedition in the Norfolk and was thus Banks" obvious choice lor the coniniand oi the expedition. Mungo Park had a lengthy argument with the Admiralty over pay and outfit allowance. This finally ended in Park withdrawing his offer to go as naturalist. Although he wrote to Banks on the 13 October, 1801 'that he left London down-hearted because his dream of settling in New Holland had disappeared" (Correspondence of the Rt Hon Sir Joseph Banks Bart. Copies by the daughters of Dawson Turner, Botany Library, British Museum (Natural History) 12: 26.5-266), it would appear that he had an undisclosed reason for his action, namely his marriage and a temporaiT desire to settle down in Scotland. Robert Brown (1773-1858) an Ensign in the Fifeshire Regiment of Fencibies was chosen by Banks as the substitute for Mungo Park. 'Science is the gainer in this change ot man, Mr Brown being a professional naturalist", thus wrote Abbe Jose Francisco Correia de Serra (1750-1823) to Banks on the 17 October, 1798 (Correspondence of the Rt Hon Str Joseph Banks Bart. Copies by the daughters of Dawson Turner, Botany Library, British Museum (Natural History) 11: 111). Brown who was born in Montrose, Scotland, was educated at Montrose Grammar School, Marischal College, Aberdeen and finally at Edinburgh University w^here he obtained his medical diploina. When Banks oflered Brown the post in December. 1800 he was serving in Ireland, as a Surgeon's mate. In a letter to Jonas Dryander ( 1748-18 10), Curator/Librarian to Sir Joseph Banks, dated the 20 December, 1800, Brown says 'hardly any situation which could have been devised would have so completely met my wishes". Possibly the factor which most recommended Bro\Mi to Banks, was that Brown was an enthusiastic botanist (Edwards, 1976). Ferdinand Lucas Bauer (1760-1826) was appointed natuial history draughtsman. He and his brother Franz Andreas Bauer (1758-1840) aie considered to be the two finest botanical artists of all time. William Westall (1781-1850) went on the voyage as landscape and figure painter, and Peter Good (d. 1803), who had been a foreman at the Royal Gardens, Kew and who had successfully conveyed a selection of living plants to Kew from the Hon East India Company's garden in Calcutta was chosen as the gardener. John Allen, from Derbyshire, was appointed as the miner, his duty was 'to take specimens of all rocks, and particularly of all mineral veins he meets with and bring them home" (Historical Records oj \'ew South Wales 4 1876: 290-291). The following undated Memorandum regarding the appointment of the scientific personnel, their instructions and accommodation was sent to the Admiralty obviously by Sir Joseph Banks. The Memorandum is not in the Admiralty archives as stated by Austin (1974) and the Public Records Office have been unable to trace it, so its current location is unknown. H.M.S. Investigator Accommodations will be wanted on board the Investigator for the following men of science. A naturalist who will have the diicction of the Botanv, etc. P o ■3 .^::n'.' ^■.„f^ □-ta M ^.x^ "L__r a a ? Plati-4 Two official plans of H.M.S. Investigator in the National Maritime Museum Draughts collection (Admiralty) No. 6224. Top: Plan of the Gun deck; Bottom: Plan of the quarter deck, showing the proposed plant cabin. Reproduced from K. A. Austin Matthew Flinders on the Victorian coast 1 794, p. 17. INTRODUCTION 17 A Natural 1^151017 Painter A Landscape and figure Painter A Mineralist An Astronomer These gentlemen must be contented with the same proportion of personal accommodation as given to a lieutenant or a master. In point of preference the Naturalist and the Astronomer should be indulged in it. Each of these gentlemen should be allowed a boy to keep their cabins clean, brush their cloths etc. A gardiner A practical Miner These must rough it, they may mess with the warrant officers and be contented with the same kind of accommodation. If the Commander chooses it the Naturalist and the Astronomer may mess with him. The rest may, if the Gun Room Mess have no objection, join them. The Commander will perhaps have no objection to let the process of drawing, etc. be carried out in the Great Cabin, if otherwise, a part of it must be divided off for that purpose. A plant cabin sfiould be carried out in frame and a sufficient quantity of spare glass. The Plant cabin that was used in the Porpoise will sei-ve during the time she is on discovery, but when she returns she ought to have a larger, as large a one indeed as can be placed on the quarter deck without too much incommoding the working of the ship. If I remember, in the case of the Porpoise six feet was left for the people to work in who haul in upon the after braces etc. on each side and astern, the cabin came forward very near the Mizin Mast. If six or seven feet of space is left clear in the Investigator on each side and astern of the plant cabin, a space will be left for it fully sufficient to bring home a large collection of plants and such a one as will be honor to His Majestys Botanic Garden. The great plant cabin need not be higher than that of the Porpoise. Commercial support for the voyage was given by the Hon East India Company. They gave Flinders and his companions £1200 'for their table". The Company's objective being to encourage the scientific persons to discover things for the trade with India and that Flinders would seek new passages for their merchantmen (India Office Librai-y, Court of Directors, Miscellenia No. 41, p. 435). The Company enjoyed exclusive trading rights in all waters surrounding New Holland. French privateers, working in the Indies, were threatening the Company's China trade, therefore they were eager to learn about the seas on the eastern flank of their Ctiina run. The Admiralty was aware of tlie French expedition to the South Pacific and their possible intention of establishing a settlement in Australia, hence all the haste with the preparations for the voyage. Flinders and H.M.S. Investigator sailed on 18 July, 1801, and when he reached the Cape he heard that the French V ^ PACIFIC OCEAN :Guit o( .- •. .'Carpentaria ■•a) i AUSTRALIA f: Wreck Reef '■4 w--'' '^ di^orl Jackson /TV .••■■^ , ■•. .'.'JlSydney) ••. ■, ty .> .••►-... . •■•••■■-. .•■^•. A ^..y ► >•-.. r^;^ • King George s Sound '-. *. •* ." .' :^ ■>■• ••>•■■■ •■■.-•>".-^ V ...>•••■■ ■■•••> >-v-' ^ - Van Oieman s Land (Tasmania) Plate .5 The ciicuninavigation of 'Terra Australis'. Main collerting areas: 1, King George's Sound, December, 1801-January', 1802; 2, Port Jackson (Sydney), May-July, 1802; June-November, 1803, September-May, 1805; 3, Gulf of Carpentaria, Novem- ber, lS02-Marcli, 1803; 4, Van Dieman's Land IsicI (Tasmaniai, |anuaiT-Septembcr 1804. Number of species collect'ed: King George's Sound OOO species; South toast 700 species; East coast "JOO species; North coast 500 species; Port Jackson, 1803-05 1000 species; Van Diemen's Land 700 species. Reproduced bv kind permission ol the Society lor the Bibliography ot Natural History. INTRODUCTION 19 expedition under Commander Baudm had sailed South some tliree niontlis earlier. FUnders was therefore not surprised to meet the French vessels Le Naturaliste and Le Geographe off the south west coast of Australia on April 7. 1802 and friendly exchanges ensued. In November. 1802, the French ships put into Port Jackson for repairs and fresh food lor their scunT ridden crew. Although the expechtions' landlalls were compaiali\cl\ lew | B, L, C-.-l, Lrsi lun.uih ili l.i Toiu" (1773-1826) made a significant collection oi natural historv specimens. Li\ing plants and seeds were brought back by the gardener Riedle, to enrich the Jardin des Plantes, in Paris, and other French Gardens. Riedle is known to have complained that he was seldom allowed to go on shore (Correspondence of the Rt Hon Sir Joseph Banks. Bart. Coi^ies bv the daughters of Dawson-Turner, Botany Librai7, British Museum (Natural f^istoi7) 14: 5.5-57). The map (Plate 5) shows the route taken by Flinders in his circumnavigation of Australia. The Peter Good Journal shows the vei^ substantial amount of time Flinders allowed the naturalists for collecting specimens and Peter Good for collecting living material and seed. The disastrous state of the Investigator and the ill health oi the crew after their stay in Timor, where some repairs to the ship had been made, lorced Flinders to abandon the charting of the West coast and to make for Port Jackson where the Investigator was considered beyond repair. The only option open to Flinders was to return to England to obtain another ship and so continue the survey. Biown and Bauer decided to remain in Australia to await Flinders return. Flinders left for England 10 August, 1803 in the Porpoise. Seven hundred and forty miles N.N.E. of Port Jackson the Porpoise was wrecked on a coral reef. Fortunately food and other stores were able to be salvaged but a set of Brown's South coast plant specimens and Good's living inaterial were lost. Flinders, and a small ciew, returned to Port Jackson in the large cutter named Hope. Flinders boarded the Cumberland on 21 Septeinber to rescue the survivors on the reef and then proceed to Knghmd. The Cumberland was forced to |)ul into Maiuitius for repairs whcte Flinders was arrested as a spy by General Charles Decaen. Repeated efforts were made by Sir Joseph Banks to secure his release but this did not occur until (uly, 1810. Although the Flinders voyage achieved most of its objectives, the participants did not receive ttie acclaim they desei^ed. Brown and Bauer returned, in 1805, to a London celebrating the Battle of Trafalgar. Sir Joseph Banks in a letter to Sir John Barrow (1764-1848), Secretai^ to the Admiralty, dated 9 October, 1805 states 'The cases of natural history objects sent home by the naturalists testify to their diligence and industry: there are 38 cases in all including, eleven of drawings by Bauer, twelve of dried plants, the rest being animals, minerals" (British Librai^ Add. Ms. 32439: 185). The Department of Botany, British Museum (Natural History), has two sets of Browns herfjarium specimens, those selected fjy Dryander and Brown for the British Museuin and the set contained in Brown's own herbarium. Brown selected two more or less identical sets of bird skins, one he i)resented to the British Museum and the other to the Linnean Society of London, which had a museum at that time. In 1863 the Soceity presented their set 20 JOURNAL OF PETER GOOD to the Museum. It was this set that was consulted by C.J. Temminck, foi his paper published in 1822 and by N. A. Vigors and T. Horsfield ibr their pa[)er published in 1827 and thus the one which contains Brown's bird types. The new species of insects collected Ijy Brown weic recorded by W. Kirby in 1818. The mineral collection made on the South coast was lost in the ill-fated Porpoise. The later collection has recently been sectioned and studied bv Professor Thomas Vallance ol the L'niversitv of Sydney and D. T. Moore ol the Department oi Mineraokigy, British Museum i Natural History). A paper by them will be published in the Bulletin of the British Museum [Natural History), Historical Series. Earliei papers weie published by W. Buckland, in 1821 and W. H. Fitton, in 1827. Edwards (1976) gives further details of the natural history collections made on the Flinders voyage and related manuscripts. Robert Browir who succeeded Dryander as Curator/Librarian to Sir Joseph Banks, later became the first Keeper of Botany (styled of the Banksian Herbarium) at the British Museum and one of the outstanding botanists of his time. Botanical science was. however, debarred the full fruits of the botanical discoveries made on the Flinders voyage. The Admiralty decreed that Brown shoidd publish a fiora and at his own expense! Only twenty-six copies of Volume 1 of his now famous Prodromus florae Novae Hollandiae et Insulae van Diemen, published in 1810, were sold. Brown therefore neither completed Volume 2, nor did he write the introduction. Later, however, he supplemented Volume 1 of the Prodromus with an important phytogeographical study General remarks geographical and systematic on the botany of Terra Austratis. This was published as an Appendix to Matthew Flinder's Voyage to Terra Australis, 1814. Ferdinand Bauer intended to publish a series of engravings to accompany Brown's Prodromus, but lor him too the time was inauspicious. The fnst three parts of his Illustraliones flora Novae Hollandiae. 1813 comprising fifteen plates sold only a small number of copies. In spite of the Napoleonic wars. Sir Joseph Banks succeeded in arranging special facilities for the safe transport of plants. Few vessels left England for New- South Wales without supplies of seed, and whenever possible living plants in pots and boxes, to maintain and to auginent the horticultural and economic wealth of the new colony. The Investigator, was no exception, it carried some cases of seed, and in a greenhouse, a number of berry fruit bushes in pots. Among Peter Good's manuscripts is a 'List of seeds [European vegetables] sown in vacinity of spring and various other situations of the Island on the 2-4 and 5 April, 1802'. The consignment of living plants was under the special care of Good, whose commission was: the collection of seed, the selection and maintenance of a collection of choice Australian plants in pots and boxes and to give assistance to Robert Brown. A prefabricated plant cabin as recommended by Banks in his Memorandum to the Admiraltv ciuoted earlier (p. 17 &: Plate 4) was on board lor Good's use. On the leturn journey the type of boxes for storing living plants and for sowing seed, which Brown had made at Port Jackson in 1802, would have been similar to those recommended by J. C. Lettsom in the third edition of his The Naturalist's and Traveller's companion, 1799 (Plates 6 & 7). Good's journal indicates that he took every opportunity to botanise and in fact did a considerable "'/ BoXr.S /or io//rtyy/n/ Pl-.VNTS /'// .>Vv/ .-, Fi'tj. I . J-'/t/. :i . C7 L-? i;;^ ^l;? q7' q? V /■' I . F<'//it o/' //ii //(>■>• . •! . The sii/zic n/i/i /loops ant1 loop.r It I/. //>r .ffci/ri/Kf ///<• i.hn\''^ /^t,y^^y ^ /^^y. m^^,, ~ ~ ~ Plate 7 Boxes for conveying pJants by sea, a plate opposiie p.i^c 24 in |. C. Leiisoni The Xaturaltit's and Traveller's companion, 3rd. ed. 1 799. INTRODUCTION 23 amount ol tlu- actual collecting thus enabling Brown, as he states in his diai^ to remain on board describing and arranging the collection. When the specimens were permanently mounted they all carried a label indicating that Brown alone was the collector. Good was thus never given credit for the specimens he collected. Brown, froin time to time, 'Directed Mr Good to put in the boxes which with much difficulty I had made on board such plants as I considered would be most interesting and at the same tiine likelv to endure rough usage and occasionally spray ot the sea and log line. The plants collected and put into these boxes amounted to nearly 70' (Brown's Diary, Botany Librai-V', British Museum (Natuial History), Dec. 28th, 1802). Good sent Sir Joseph consignments of seed at every opportunity. His lists of seed, which are reproduced in lacsimile, are in two sequences. An al]ihabetical list oi the seed in a particular consignment and another list in which habit and habitat details are given. The latter list gives the kind of information helpful to William Towiisend Alton ( 1766-1849), head gardener at the Royal Gardens, Kew. The first Inwards book at the Royal Botanic Gardens, Kew lecords the arrival of four boxes of seed collected by Good. Peter Good collected tlie fcjllowing seeds in New South Wales they were brought home in tiie Calcutta man ol war and prove to contain the most valuable acquisition oi Banksia and other rare genera, items 879-1003: seeds froiB Peter Good 140 papers exclusive of Banksia's, 1004-1 144, Banksia species 1 145-1 179; The following seeds were collected by Mr Peter Good New South Wales and were part of his great collection, 1803, 1198-2246. This latter collection of seed although recorded at Kew as being received froin New South Wales in 1803 was in fact the result of Good's collecting during the circumnavigation and included material from the East Coast and the Gulf of Carpentaria; the Kew record indicating that the collection was sent froin New Scjuth Wales. It would have been the collection salvaged from the Pnrpoue. This, however, was not the first collection received by Banks. A selection of seed collected on the south-west coast was sent around, 21 May, 1802 in the whaler. Speedy. Banks on 24 April, 1803 infcsrms Brown that 'the seeds he had sent have been planted at Kew and raise high hopes' [Correspondence of Rl Hon Sir Joseph Banks Bart. Copies by the daughtei s ol Dawson Turner, Botany Libran', Bi itish Museimi (Natural Histoiy) 14: 43-45). Later, 30 August, 1804 Banks adds 'they have produced some curious plants' [Correspondence of Rl Hon Sir Joseph Banks Bart. Copies by the daughters of Dawson Turner, Botany Library, British Museum (Natural History) 15: 84-86). W. T. Alton in the second edition of his father's Hortus Kewensis, 1810 only gives the date 1803 for introductions by Peter Good. Included among the Good iTianuscripts is a 'List of plants taken on board H.M. Ship Investigator during a cruise from Portjackson Irom 21 July, 1802' and a 'List of plants in the garden on board the Investigator the 22 April, 1803'. Both these lists indicate what plants were selected at the various anchorages. There is a list in Brown's liand ot the plants growing in the garden 24 April, 1803 (British Librai-y, Add. MS. 32439: 96-97). 24 JOl'RNAL OF PETER GOOD Brown, on 4 March, 1804, listed the Australian plants growing at Kew 'Plantae Novae Holiandiae in Horto Regio Kewensis Crecentes', IT, 4 (Botanv Lihrarv', British Museum (Natural History)). Flinders suggested to Banks that seed of European fruit and vegetables could be sown at various anchorages and if successfully established they would be a gieat advantage to future expeditions. The manuscript list, in Good's hand, of the seed so distributed is reproduced in iacsimile. Brown in a letter to Banks dated 30 May, 1802 states that 'In Mr Peter Good I have a most valuable assistant a more active man in his department could hardly believe have been met with but has not sufhcient facilities on board for keeping living plants' {Correspondence of the Rl Hon Sir Joseph Banks Bart. Copies by the daughters of Dawson Turner, Botany Library, British Museum (Natural History) 13: 141-146). Good himself mentions in his journal that at a particular anchorage conditions were not suitable for the potting and boxing ot living specimens. So Good had problems regarding his commitment to select and maintain a selection of living plants. Brown, on 30 May, 1802, informs Banks that some plants 'have been sent to be taken care of in the Governor's garden' [Correspondence of the Rt Hon Sir Joseph Banks Bart. Copies by the daughters of Dawson Turner, Botany Library, British Museum (Natural Histon) 13: 141-146). Banks in a letter to Brown dated 8 April, 1803 states that great credit is due to Captain Flinders for giving so many opportunities for landing and botanising (British Library', Add. MS. 32439 : 95). Brown when informing Banks of Good's death, in a letter dated the 6 August, 1803 states '... Poor Peter Good, who while he enjoyed health was most idefatigable, and whose exertions in his department were without doubt the cause of his uniimelv fate, died a few days after our arri\al here of dysentn-. contracted soon after our departure from Timor' {Historical Records of New South Wales. .5: 1897: 181). Banks, had in fact, first heard of Good's death when John Allen, the miner, arrived home [Correspondence of the Rt Hon .Sir Joseph Banks Bart. Copies by the daughters of Dawson-Turner, Botanv Libran, Brilish Museum iN.iiui.il Histon) 15:84-86). With the Good manuscripts is a notebook in which Brown has recorded the sale of Good's books and other effects to members of the crew. With the Brown correspondence at the British LibraiT is a draft of an undated letter Brown wTote to Banks informing him of this transaction and other matters relating to Good's death. Captn. Flinders on whom the task ol disposing oi liis effects an' near the summit of the Table — but it now came on thick fogg and rain — we had not long to consider our situation till we fell in with a small path — we followed and soon arrived at the opening of the Mountain down to Cape Town — here we consulted whether to remain all night and examine the Mountain in the morning and save ourselves the trouble of again ascending it but as we had little provisions and it continued to rain we all descended and arrived in the Town about 8 — we enquired for the English Coffee house where they behaved to us with much civility and procured us lodgings where we were well accoirimodated at a leasonable rate 26 Mr Brown and I took a walk to the Devil's Mountain'" and collected a few plants and returned to dinner when we met Mr Westal who now joined us having left the Ship in Company with Mr Allen the same day we did but had lost each other on the way and had fared very indifTerently and slept one night at Constantia — after dinner walked in Company Gardens'"'' and about the Town — but it rained very heav7 44 JOURNAL OF PETER GOOD Ociobcr 27 Breakfasted at 6 in morning and Mr Brown & 1 set out to ascend the Table Mountain while Mr Bawer, Bell and Westall set out the best way for Cape Town. Mr Brown and I ascended to the Top ol the Table Mountain in two hours — but very unfortunately as we tame to the Top a thick fogg and rain came on which continued all the time we were on the top — and we had not descended far when the day cleared up and became fme — we continued several hours ranging the skirts of the Mountain and found some fine heaths — Saxfari*' & obliqua*^ but very few thing but we fiad before found — we then descended a very steep bank with much difBculty by a way which probably never was before attempted — near the bottom we found ourselves in a wood of some extent of natural Timber of a good size consisting chiefly of Taxus elongata,'" Royena lucida,'" Rhus lucida, Halleria lucida, Ceanothus africana,'*'' & Erica trifolia,'"' 12 to 20 ft high & . . . — In this wood which detained us 3 to 4 hours we found 4 or 5 sp. of Ferns which we had not found before also several Mosses and Lichens the Polypodium capensis^' grew here with fronds 6 or 8 feet long — at length we fell in with a foot path and set out a Brisk walk lor Tokav but were benighted some miles distant, however we found our way though not the most direct arrived time enough to meet a kind reception and partake of an elegant supper from Mr Loos 28 When we got up in the morning we found Mr Bell & Mr Wesiall in bed in an adjoining room having lost their way and with dilTiculty got to this place at^ past 10 they were also kindly received and accommodated — having thanked our kind host as well as we could be understood and got his address on purpose to send him some seeds he had expressed a wish to have, wc took our leave expecting to Breakfast at Meusenburg'-' 4 or 5 miles distant, being eager to preser\e the specimens which we had collected, when we arrived at Meusenburg we could piocure nothing either to eat or drink, but were informed one might at a toll a lew miles further on t>ut when we arrived theic wc were in the same predicament — there was nothing now left but pioc eed for the ship when we arrived at the wharf about noon we found Mi Bawer who had arrived here the night before too late to get on Board and had passed the night in the Tent with Mr Crossley^' and ftad not got on board this morning — we then Begged a passage on Board from the Lancasters boat & got all safe on Board before one — and was very sorry to learn Mr Crosslcy was to leave us and leturn to England his health not permitting him to go the Voyage, he had been confined to his Cabin by indispostion a great part of the Voyage. 29 Remained on Board securing everything for Sea. MAIN JOL'RNAL 45 October 30 Went ashore and had a long walk by myself found one species of orchidea we had not before seen Sc several rare ones as also various other specimens. 31 As the Ship was expected to sail tomorrow I went ashore with Mr Brown and had a walk along the shore where we gathered some specimens of Granite plants Sec. and also made necessary preparations (or Sea. From the Cape of Good Hope towards New Holland November 1 Remained on Board all day expecting to sail evei7 hour. Continued in same state of suspense as wind not permit us to sail till 4 Got under way early in morning with light airs and Calms till about noon being near the entrance to the Bay a steady light Breeze from South South West at this time a singular phenomenon appeared in the water which was tinged with a dull red for a great distance round the Ship. The lead was hove but no bottom found, some of the water was taken up and appeared perfectly clear, but on examination with a microscope it was full of red Insects.^'' The sea appeared all in stripes of red and its natural colour, each stripe from 10 to 50 or 100 yards broad and as far as the eye coufd reach after some hours it gradually disappeared. 5 Calm and serene in morning a fine View of the Land from the Table Land to the High Mountains of Hottentots Holland and even to Cape Angullus'"' — the Land appears to have many fine deep Bays — at noon a fme Breeze sprung up from North West bore South East 6 Fresh Breeze as yesterday at noon a Brig seen standing to South West — out of sight of Land. Nothing more remarkable strong winds lair but \ariable 12 light breeze hove the lead with a Buket and \alves and 160 fathoms of line the water at that depth sunk the Thermometer to 63 while at surface it was 64 and in the air 68 the experiment w'as repeated three times without variation &: some bottles of this water put by for examination. Nothing more remarkable occured variable weatlui but westerly winds prevailed till 24 Bent cables and prepared boats fcc. to land at St Pauls or Amsterdamm'"'' many Birds and some Whales seen in evening 46 JOl'RNAL OF PETER GOOD November 24 looked well out for land but hazy weather prevented seeing any distance — lay too from 1 1 pm till 25 4 AM stood on with easy sail, a thick fogg prevented seeing any distance — at noon inade sail and stood on for King George the thirds Sound'' having missed these two Islands of St. Pauls and Amsterdam. Nothing more reiriarkable occuied strong westerly Winds prevailed with a long swell and sharp keen air till December 5 Wind abated became much more mild and smooth sea 6 Gentle Breeze and mild weather — punished one of the marines for drunkeness and Bent Cables and at 6 pm saw land from the Fore Top Mast head Sounded 85 fathoms hne white sand — stood on under easy Sail and sounded from 85 to 25 fathoms fine sand or small stones. 7 Land right ahead &: on weather &: Lea Bow — stt)od to the Eastward along the Coast from 2 to four Leagues distant The Land generally low — many pieces of considerable extent of Barren white sand in other places entirely covered with (to appearance) a luxuriant vegetation of a dark green in many places Trees evidently of a considerable size — The countiT appeared very flat no mountains of consequence and the highest covered with Trees. Several reefs of Breakers along the shoie and some abrupt rocks. — but the general Coast was a tegular ascent of sand bank and in some places a low flat shore where we could see soine distance in land where there appeared the greatest fertility — Towards evening the Coast became more rocky and the land terminated in Cliffs nearly perpendicular the Summit of which was covered with a fine low green verdure resembling at a distance Sheep pastures of England — many Breakers and some detached Rocks — Sounded repeatedly all day from 20 to 40 fathoms geneially Sand — at night stood too out to Sea 8 Stood in Shore to the place we saw last night — and bore the Coast past Cape How" — to the East of which was a considerable Smoak close on the shore — at 1 1 at night Anchored in King Georges Sound near Seal Island. 9 Early in morning a boat went to Seal Island and soon came off with 4 Seals'' — after breakfast Mr Brown & party was landed on South shore where we collected many specimens and Soine Seeds — we were much at a loss for water this days excursion this being a sandy rocky barren headland aptly enough named bv Vancover'"" Bald head — we returned to the Beat h to a place separated from where we had landed by a mass oi Bare fjranile rock very steep — it being nearly dark the Gentlemen did not MAIN JOURNAL 47 December 9 choose to cross to the Boat which came for us to where it had set us down — I went to direct the Boat to come to where they were — but coming there being quite dark and a considerable Surf — they thought it hazardous &: remained on shore all night by a good fire The Captain went to Princess Royal Harbour & saw some huts of natives but no traces of their having been lately in them. Many of the officers & men had eat ol the flesh ol Seals caught in morning &: most of them were sick from it. 10 A Bcjat went for the Messrs Brown, Bawer Sc Allen early in morning another went to Seal Island & got several birds both old & voung but no Seals — ship got vmderway before 8 and sailed farther up the Sound & again Anchored the wind preventing trom going into Princess Royal Harbour and not having sufficient depth of water to go into Oyster harbour — which is a much more fertile part of the Country — This day I took the opportunity of the Boats and made two Short excursions on the neck of land which separates Princess Royal Harbour from the Sound & collected several new specimens & seeds. The Captain went to Oyster Harbour. Sounding &c and found only 13 feet over the Bar of entrance he found a spot of ground which had been dug up & a piece of Ships copper fixed clumsily stamped August 27th 1800 Christopher Dixson Ship Ellsgood 1 1 Went ashore with Mr Brown & to the Point on right of entrance of Oyster Harbour where we made a rich harvest of plants & Seeds. A party were landed to the left of Oyster Harbour & fell in with a fine Lake of fresh water — also a spear of Natives — some showers 12 This morning the natives made a fire near the entrance of the Sound opposite Bald Head — The Ship got underway & sailed into Princess Royal Harbour where Anchored at 10 in 3 fathoms water & was soon moored — iininediately on droping Anchor a party were landed to the North shore to which we were most contiguous & we ascended a hill of considerable elevation where we had a fine view of the Country which is low and beautifull covered with woods & frequent natural meadows — The soil of the Hills is sandy & full of Stones even of the low country & the meadows or marshes are black bog with a mixture of Sharp Sand — The Rock is chieHy Granite but theie is also on some places much IronsH)ne & also some Calcareous matter — but the Country appears much better at first sight than on examination — This day the Observatory was erected 48 JOURNAL OF PETER GOOD December 13 Went ashore in neibourhood of Observatory- & collected several specimens & seeds. 14 Messrs Brown & Westall with ser\'ants & Mr Allen & I went ashore alter breakfast & seeing a fire at farther end ol the Harbour which we knew must be kindled by the Natives we walked to it — before we reached the place the fire was gone out but we soon perceived a person walking on the Beach at a little distance we went towards him & he met us vei^ unconcerned till within about 50 yards fiom us when we discovered some signs of Sui prise — began to call to us with great lorce and seeing us persist in advancing to him he brandished his spear &: struck ofT from the Beach among the bushes calling to us in a threatning manner & making signs with his hand for us not to advance — we followed him & soon saw what we supposed to be his family of women and children — running away as fast as they could — he dien begun to set fire to the bushes to prevent us from following him and gain time for his family to escape — we followed some time to the knees in a marsh but finding we could not overtake them we went in another direction while he watched our movements — on our return to the Ship we perceived him looking at us at no great distance & again went towards him — he fled as before having previously sent off his lamilv. We then sat down to eat some Salt beef & Biscuit & one of the partv having shot a large water Bird Mr Allen carried it halt wav to him and left it on a bush — he came & took it to his family who seemed much pleased with it — a handkerchief & knife was then carried & he perinitted the person to come very near him — he took the handkerchief fjut left the knife but would not allow anyone to come close to him 15 Two Natives came along Shore Early in the morning shouting and making very odd gestures — they came near to the Tents & were enticed (by carrying Red night Caps &:c and leaving near them and when they came to take it up carrying another not so far which they again took up) till they exchanged one of their Spears & a hatchet of Stone for some of our trinkets &c. They went awav ven Fi iendlv — and in a lew hours foiu (cinic up confidently to the Tents and Trafficked fieelv such trifles as they had to spare — They greatly admired the white Skins of oin people and prevailed on some of them to satisfy ihem what sex they were and seemed much pleased with their condescension — They set no value on anything that was given except night < aps & handkerchiefs — red was their favourite colour — On going away they would not permit any body to go with them & thiew away some rings & Trinkets that had been given them MAIN JOURNAL 49 Dfteiiiber 15 This day the Boats procured so many oysters that they were served out to all the Ships Company. 1 7 Set out at 6 in morning with Mr Brown Allen fee tor Oyster Harbour — we kept mostly along shoie till we reached the River mentioned by Vancover — we followed the course of this River which winds Irom West to East we found it very tioublesome walking sometimes midly deep in mud at other times in thick brush wood and long grass 5 or 6 feet high and to heighten our ditficultys we were in great want of water the River being quite brackish with much latigue at about one o Clock we found the River divide into two Streams — the one seemed to come from North to South and the other from North West to South East and unite here — we followed the last which was least but still brackish water — we soon came to a small fall in the River which afforded us much satisfaction having neither eat nor drank this day before here — we stopt sometime to refresh ourselves & dui ing out stav the tide rose considerably at the bottom of the fall and it appears that at high water it is covered by the tide — I supi^ose this to be 6 or 7 miles Irom the Sea — In tracing the river we saw many wild Ducks which were not vei7 shy & one Kangaroo" having refreshed ourselves we set out the nearest way for the Ship walking by compass through an immense Forest we walked witli all convenient expedition & occasionally met with pools of standing water which were very desirable — however night overtook us while we were 6 or 7 miles distant from the Ship — we had seen a small Lake in one of our former excursions at no great distance Irom where we were and as we had good moonlight we made for it &: reached it afjout 9 — here we made a Hie eat the remainder of our provisions appointed a watch and lay down to sleep 18 Got up at Daylight and proceeded for the Ship which we reached at Breakfast. — In this excursion we found manv fine specimens & some seeds — a violent scjuall with heavy rain came on about noon & continued several hours — also Thunder & some Hail. 19 The ground being moist with frequent showers I went ashore and took up a number of plants to prepare for putting in boxes which were getting ready. 20 Went ashore Early in morning to South of Harbour & traversed a wood of very large Timber — chiefly Eucalyptus resinifera — and directed our Course to the Top of a range of hills to South West during a verv' heavy rain — on our return we travel sed a large tract of barren Sand which had a ven singular appearance being lull ot Coral of various sizes figure & textuie 50 JOURNAL OF PETER GOOD December 2 1 Went ashore alone & took up several plants to prepare for boxes also gathered several seeds & specimens 22 Took a walk in neibourhood of Harbour with Mr Brown and gathered a few seeds & specimens 23 Went ashore early in morning with a large party of 13 in number in which were included Captain and first Lieutenant we ( ai i icd provisions with us for two or 3 days intending to go to the Lakes to the west seen froin observatory mountain and to ascertain whether they have any communication with the Sea near Cape Howe^^ — we had gone but little distance from the Beach when we perceived a native at some distance before us and soon after heard the voice of children at a little distance we soon came up to one which we found to be the oldest of the Natives which often visited the Tents — he met us unarmed and cordially shook hands with such as offered and endeavoured to prevent us from going any farther by taking hold of the foremost of us & when he saw anothei pass leave that & again run to the first this he continued to do for soinetime &: making a great noise — when we had passed his family he permitted us to walk peaceably but continued with us a considerable time while we were walking Midly deep in a morass during a heav^ rain — while he was with us one of the party shot a Parroquet" which was shown to him he was eager to have it but showed little fear for the report of the musket — however he expressed some degree of surprise and seemed to pay much attention to loading the musket again — we also found a snake^"* which he the native knocked out of the hand of the person who had taken it up with evident symptoms of horror giving us to understand it was dangerous — after mid day we arrived on the borders of the nearest Lake which I think is about 2 miles long and 1 or more broad with extensive morasses near it in one of which we had waded some time mote than knee deep — here we saw fit to take some refreshment and drank freely the waters of the Lake and proceeded to westward keeping the Lake on our left when we came to the west extreamity of this Lake we struck off for another which we had seen to South West but were again interrupted by another morass — having exiricaied oiu selves again we soon lell in with a River of 12 or 14 yards broad and appaiently verv deep ven- still black water — we traced this River a considerable time walking among large Trees and excessive thick brush wood 5 or 6 feel high with frecjuent Morasses — we found the River sensibly to Diminish till at length we forded it with tolerable ease and then directed our course for the Sea — we soon came to a fine run ol pure water near the border of an extensive wood and MAIN JOURNAL 51 December 23 being near night took up our quarters — made a fire fixed our Centineis &c. 24 Set out early in the morning and soon found ourselves on the Banks ot a fine River of Brakish water — this we followed, encountered another Morass and soon found ourselves on the borders of a fine Lagoon of Brakish water, nearly Circular, of I think 2 miles or more in Diameter — we weie now ashured this must communicate with the Sea fiom which we could not be very distant and that in all probability we should not be able to cross this River and Lake nearer to the Sea we thought proper to return the way we came to get to the opposite side ol this River — to ascend the mountain, on that side where could see all between us and the Sea and ascertain with certainly their situation 8c communication — with a continued quick pace about 2 PM we arrived at the place where we had i efreshed ourselves yesterday on banks of the first Lake — having in our way met with a path of the natives which we followed several miles and forwarded us much — here we halted to refresh ourselves — and soon set off for the hills but before we could get clear of the morasses which surround the Lake we were obliged to wade knee deep for some time through a thicket of bushes — but getting clear of this thicket we soon ascended the hills and had a fine view of the Lakes and a vast extent of Counti^ — we saw a Lake nearer to the Sea than we had been and which is united to the Brackish one we had seen & the Sea by the River which we had traced for Several hours of both days and on which we had seen some Black Swans^^ — The Sea forms a deep bight to these Lakes but appeared Shoal water with a reef of Breakers opposite the entrance — having rested ourselves and enjoyed this fine prospect — we returned for the Ship — but soon began to want water which was not to be had on these moimtains — we had not returned far when Mr Bawer was so much overcome with fatigue and want of water that he could not proceed — Mr Brown as also a Sailor & I continued with him while the others proceeded for the Ship where they arrived about 9 very much exausted — Mr Bawer having rested awhile we again proceeded intending at any rate to search some water if possible of which we were so much in want — but he was frecquently obliged to sit down — we could find no water till about midnight we arrived on the Beach & soon came to known spring which was drank with delight — we then proceeded to the Tents where we slept sound till morning. 25 Got on Board about 6 o clock & having secured our collections had the pleasuie of eating a Christmas Dinner with the Captain the Sailors had holliday & were more regular & orderly than usual on such occasions however several got compleatly drunk. 52 JOURNAL OF PETER GOOD December 26 Employed Turning specimens Sec which i ecjiiii ed nnich attendance. 27 Went ashore with Mr Brown & collected a few things in the neibourhood — he told me tomorrow was the last day we could expect to do anything ashore here &: that some boxes would be ready for plants &:c. 28 The Boxes were not ready till 1 1 when 1 went ashore and had some assistance from the Marines to get earth fee I planted as many and with as much care as time & circumstances would permit — but the day was stormy and unfavourable — so much that they could not be taken on Board — Mr Brown & Allen went ashore on the neck of land which seperates the soinid from the Harbour where they found a Birds nest of 22 feet circimTference & 5 feet 6 inches high'"'' 29 Got the Plant boxes 3 in number on Board with about 60 species of plants — They were placed at the Stern directly under the drop of Log & Leadlines 30 A party of the marines were landed & exercised in presence of several of the Natives who seemed to admire them they showed no other emotion than a sudden start at the reports of the Vollies — Mr Brown & Mr Bell took the demensions of the different parts of the Body of one of them he gave proof of considerable patience by the manner of permitting him to measure him & then begun to name the different parts of the body from which was collected a few words of a VocabulaiT Caat-the Head — colit the breast — Nelock cheek — Waart the Neck — Taa mouth — Geur the arm — Davaal the Thigh — Mat the leg — Menal the Eyes — Twang Ears — Catta hair — Mite the privates — Kean Toes — Wurril the skin which they wear over their shoulders — ^emba sit down — Geant The Sun — This dav the Tents were struck and carried on Board — wind woidd not permit us to sail 3 1 Wind being contrary went ashore to South of Harbour and collected a few things — Captain & partv landed at some place & on the range of Hills saw three large kangaroos & an Emu" On the south luest coast of New Holland 1802 JanuaiT 1 T he wind continued to blow in the entrance of the Hai bom — at Mi Biowns desire I landed on one side of the Harbour while he with a jiartv landed on the opposite where he saw 4 kangaroos bill found iioiliing new. MAIN jOURNAl, 53 At Mr Browns desire I was landed on the same side of the Harbour which he was yesterday I went alone and saw a very large black snake" — saw two fine Rivulets ol the finest water I has seen in the Country & found several new plants seeds &c., also some singular Seaweeds — a boat went a fishing and caught so many that they were served out to the Ship's Company. At one P.M. the wind shifted to South West a fine Breeze weighed and sailed into the Sound — Trawled and caught a great variety of Fish some vet7 curious in form — the Tiawl also brought up a variety ol marine plants and some Coral. Fish were served to the ships Company. Anchoi ed in the evening. Every thing was prepared for Sea — Mr Brown and I went ashore and collected a few things — & in the evening Captain, Mr Fowler and Mi Brown went to Seal Island to deposit a bottle containing a letter and giving information of our progress thus far &: our intended route &c. fcc. &c. Mucti rainfall in the night and morning — after 9 got underway and past between the Islands in entrance and mount Gardner — when another high mountain appear alter passing which we past between an Island of consideiable size & the Main — behind the point was a tire with smooth water — in the evening stood olf a stiff breeze 8c a considerable swell all day In the morning stood on to where we had been last night and ranged along the Coast about 8 hauled up for a deep bight with an Island in the entrance — but seeing the bottom stood on from 2 or 3 miles to several leagues distant — about 5 hauled up again between two Islairds and into a spacious Bay with low land to West & Nortti and 2 high mountains to the East — here the boat was Icjwei etl and went to Sound the channel between the Islands and the Main and on finding a ship could not pass theie we stood on Nearly Calm till noon when a light Breeze sprung up — at this time we were 3 or 4 leagues distant from Land at j past one the Breeze encreasing we stood on for an opening which appeared between the two high mountains and a lower one on West — on coming near it proved only a small bight and tfien stood on — The counti^ now put on a mucli more barien appearance than to westward of King George III Sound as it appeared entirely destitute ol Timber — however it is inhabited and we saw several fires in land — In the evening saw many Breakers ahead and an Island off a point of very low land. In the morning past a small Island with many Birds and some Seals — ,1 vast lange of Breakers streached liom this Island 54 JOURNAL OF PETER GOOD Januarv S towards the main & another on the opposite side of us — The Coast here tor a considerable distance is verv' low and barren — in evening near a Cluster of Islands laid down bv Dentrecasteaux*' — stood off for the night — fine weather. 9 Light breeze westerly stood on to East and passed a number of small Islands & Breakeis which obliged us to keep a distance from the Main &: still Islands as far as could be seen — The Coast appeared veiT barren vast Tracts absolutely destitute of vegetation — The Islands appeared all Granite Rock nearly destitute of vegetation — however some of the longest were Covered with wood — Towards evening we were entirely surrounded with Islands and Breakers in every- Direction so that it became dangerous to keep to Sea we theiefore stood in for a Bay on the main and anchored at j past 7 in 8 fathoms of water sheltered from all Winds but West. 10 Went ashore at Daylight with a large party and collected many fine specimens &: seeds — In this days excursion we met with a species of Cycas'" with plenty of green fruit — on cutting it open and tasting the Seeds were vers palatable & full of juice as water was scarce we eat heartily then made a fire and roasted them and eat in that form — but were ver\ soon after taken with a pain on tlic Stomach a headach and repeated reaching — which continued all day — this was common to all who eat this Palm about 20 in number — two only of which experieirced no bad effects from it — It had no other effect than that of a strong emetic as every one was well next day — Captain Cook relates a similar instance which occurred to his crew & on giving the fruit to the Hogs they swelled and died. 1 1 After Breakfast were landed in a fine snug Bay to North of where we lay and collected several fine specimens and seeds particularly Banksia — Came to a fine Lake of freshwater a few yards from the Sea with plenty of wild Ducks 2 of which were killed. 12 Went ashore in the morning and walked to the mountain where we had landed yesterday where I found a new Banksia I then bent iny Course to another high mountain in land with a singular summit — near the base of which I found an extensive marsh 8c some new plants also evident marks of the nati\es having been there very recently — finding I would be benighted if I ascended the mountain I returned and got on board f)efoic dark loaded with seveial fine new plants — on Board ihey c aught an enormous Shark witfi the Carcass of two Seals almost entire in his stomacfi in one of which was found a piece of natives spear. MAINJOIIRNAL 55 January 13 Went ashore with Mr Brown and party to visit the mountain which I had been at the base of yesterday on ascending near the Summit and arriving at the entrance of what we had supposed a Cavern — we were astonished to find it a natural Arch entirely through the mountain — this arch was 70 yards broad at the base 40 yards through the mountain and 9 or 10 yards high here we found a tew new plants — when on the Summit we could count the country set on fire in 9 differeirt places by the Natives and one of our boats had gone to a large woody Island to which they had set fire the smoak from so many darkened the air so that we could not see much of the country — but what we saw is barren no luxuriant vegetation to be seen several small Lakes and Marshes — This bay as also the mountains forms a head land which streaches a considerable way into the Sea which almost surrounds it — The Bay is situated between 34 and 35° of South Latitude and 122 & 123 of East Longitude. 14 Got uirderway early with a fine Breeze &: stood on through a great number ot Islands and Bieakers and past a banen Coast — about 3 p.m. it was reported liom the masthead shoal water a head very near and instantly the Ship touched — but fortunately suffered no damage — at this instant we had not 3 fathoms of water & next cast of the lead 7 fathoms on one side and 13 on the other — The boat was instantly lowered and sent ahead and soon made a signal for shoal water hove too and boat soon after made signal to stand on did so and in evening stood for a Bay of a large Island where we anchored about Sun down in a snug well sheltered Bay. 15 Were landed in the morning on the large Island & ranged through the woods and along the Shore — we fell in with a Lake of very salt water tinged of a beautiful red colour with a Cjuantity of fine white Salt on its shoies & also fine chrystals of Salt — This Lake was separated from the Sea by a high bank covered with wood about 100 yards broad — this Lake is about f of a mile long & broad — came on board to dinner having found little varierv' here — in evening were landed on a small Island which shelters the anchorage here we found but little variety — the boat had been here in morning & had set fire to the low bi ush with which it is coveted the smoak of which annoyed us much — The Boats crews killed on this Island upwards of 2 Dozen Geese" of a kind peculiar to this country & are little inferior to English Geese — they were divided among the Ship's Company 16 Went ashore on the large Island 8c ascended the highest part of the Island which commands an extensive prospect of Islands and even the main — from the appearance of the Vegetation the 56 JOURNAL OF PETER GOOD jaiuKirv 16 South West winds must be very prevalem lieie — This Island is chiefly composed of Granite of various degrees of fineness and colour — some finely streaked with veins of vers pure Quartzc also some viens of Mica Sc Fehspar — here is also Calcareous Stone — Mr Thistle'- went sounding the different channels among the Islands & visited some Islands more distant Sc brought on Board 30 Geese which were also distributed among the Crew — which together with the fish caught here proved a great refreshment. 1 7 Got underway Early in morning and passed many Islands and breakers &: a deep bight in the main — the Coast was chieflv low with some hills ol considerable elevation in land in evening came to an Anchor in 8 fathoms water near some white sand hills on Shore which was ven- low — the Countrs' rising slow & gradually to a ridge of moderate height which bounded the prospect of the countiT. 18 Got underway early with a light air which dyed away to a Cahn about noon a Breeze sprung up from Eastward at 4 weie very near the Shore — having passed several hills of white sand of a singular appearance. The Coast had now a ven different appeaiance — The land ending abruptly in perpendicular while rock of which we could distinctly see the strata running horizontal — This lock streached to East and West of an etjuaf height — which formed all the prospect of this countrs as no land could be seen over the apparent wall even from the masthead. 19 Wind more favourable and stood along parralel to the shore with a fine Breeze — a continuation of the same perpendicular rock wall all that could be seen of the land. 20 This and folloyving day the wind contrary with a heavv swell — we made little progress to windward and of course saw little land — but what we saw was only a continuation ol the same perpendicular rock of the same height and appearance. 22 Wind still contrary' but more smooth yvater in evening caine very near the shore in 7 fathoms water — The land had now a ver\ different appearance — being very low land with some liiile i ising hills of sand and some vegetation hut great ranges of sand absolutely void of vegetation many Cokmins oi Smoak i ising at no great distance in land — at night wind variable & hot — rather squally. 23 Wind more favourable stood along the Coast whi( h was near a streighl line from West to East — low flat CountiA no hills of conset|uence. 24 This and following day the same a{)pearance of low fanif Init rather more fertile. MAIN JOIIRNAL 57 Januarv 26 Brisk wind from South & South West about noon the Coast opposite us had the same appearance as horn the 18th to the 22nd the land ending abruptly in a perpendicular ifjck of 30 to 40 yards high runing in a direct line from East to West. 27 The same shore like a wall composed all our view of land till about noon it changed its appearance to a Sandy Beach and low counties' — The Rockv Coast 1 think extended about 100 miles as also the one Irom 18th to the 22nd and the whole shore since the 16 had run nearly from west to East — It now changed its direction and trended to South East The soundings along this whole extent of Coast were very regular. 28 The coast was now more irregular — in evening stood in for a large Bay behind a rock point and anchored in 3 fathoms water. 29 Went ashoie at daylight and ascended the neck of land which shelters the Bay — finding vei7 few plants there directed our course to the flat low counti^ more in land — here we found a large tract which at some seasons inust be inundated with salt water as the Surface was covered with Salt — a species or two of Salicornia was all the Vegetation this part affoided we were obliged to be on Board by noon & finding nothing to protract our stay were rather before our time and got undei"way soon after. This is the most miserable part of the Coast we had landed on — not a drop of fresh water and tittle variety of either animals or vegetables — we saw in some places the prints of naked feet in the mud and sand but not recent many veiT recent prints of the feet of Dogs" — This was the only part of the main where none of the bushes had been set on fire — but indeed tfiey were so thin scattered as to render it difficult — The Rock here is Calcarious and of different colour &: consistence some porous others fine grained and hard. 30 This and following day the wind contrary and we made little progress the coast trended much to the South with a vei7 barren a|)pearance. February 1 Past to windward of a low Island but made little progress. 2 Wind still contiai^ — in evening came in sight of a number of Islands and breakers — stood lor a Bay on North side of a large Island and anchored — a number of Birds of the Peteiel kind on the wing 3 Went ashore in morning and traversed this Island which we found to be all burrowed over by a bird of the Peterel kind which must be very numerous — This Island is chiefly composed of Calcaieous mattei with a Base of Porphei-y' also some considerable Rocks of Sandstone — towards noon the heat 58 JOURNAL OF PETER GOOD Febi uan 3 became excessive the Thermometer in shade of a Rock on shore rose to 100 laid down in the Sun it rose to the top of the Tube which was 130° — a species of Grass" about knee high annoyed us much, it run into our legs as sharp as needles — we met with little variety here ever\- thing was parched up — two Boats went ashore in the evening and brought ofT400 of the Peterels which burrow here in such quantity and are tolerable eating — the Sailors call them Mutton birds" — Captain 8c Master were employed taking bearings & sounding the channels — hazv weather. 4 Got underway about 1 PM with a fine Breeze from South South East and stood towards the North — we soon saw the main to West and land to North & East — in standing to the North for a deep Bay and attempting to pass between two Islands — we were very near aground the water having shoaled ven, suddentlv to | less 3 fathoms — wore Ship directly and lay too for the night. 5 This day was employed in exploring several deep bights to the Eastward — in every finding the land trend much to South — stood to the North tor a Bay which had not been sufficientlv explored — several fires on shore 6 Stood to North and passed to westward of where we had nearlv grounded on the evening of the 4 then hauled up into a deep Bay for some time till water shoaling to three fathoins when we put about at this time we were several leagues, froin the Bottom of the Bay which had a low^ sandy shore with a flat country^ — smoak seen in land — In evening anchored in entrance of the straight between the two Islands which separates this Bay from the others to Eastward. 7 Went ashore Early on the largest Island which is 4 or 5 leagues in length — here we saw a great number of ciuadiupeds of the kangaroo kind about the size of a hare'^ three of which were killed — we found no variety of plants here came on board about one PM — the Ship soon got underway and before midnight Anchored in the same Bay in which we had Anchored on the 2 instant — very hot weather since our arrival here — much lightning in South quarter. 8 Went ashore and traversed a difTerent part of the Island from where we had been before but was etjually unsuccessful — In evening the Boat went ashore and brought oif 7 50 birds whit h were divided among the Crew — hot weather. 9 Got underway Early with a fine Breeze which giadually increased we stood South East and in the afternoon made the same point of land which we had left on evening of the 5 being a high rotkv point — the Air was now quite cool. MAIN JOURNAL 59 February 10 In morning stood for a bight behind a point of perpendicular Ro(i<. — In this bight was an Island and many breakers — but no safe harboui^ — stood along the Coast which was high and rocky with a fine Breeze — about noon stood in behind another rocky point where appeared a fine opening in land — we stood very near and saw a nairow opening through a low rock and at some distance beyond a Sandy Beach — from the mast head water was seen overland — so that it is probably there is either a river or some Lake here — but the entrance appeared Shoal water with Breakers — as the wind grew fresh full against the Shore it was dangerous to go near — stood along Shore South East close hauled — In evening came in sight of several Islands some of considerable extent. 1 1 Strong South East wind with Squalls a number of Islands Rocks and Breakers ahead — about 8 A.M. anchored under the Lee of a Large Island nearest the Main and soon went on shore but the whole Island produces little else but Birds and Seals. Cool air. 12 Got underway Early with a strong South East wind and in even anchored under the Lee of a Large Island far from the Main. 13 Went ashore Early and traversed the greater part of this Island. It is woody but no large timber and no water — it is stocked with a species of kangaroo the same as was found on the 7 instant but here they were in better condition the air is certainly much cooler — This as all the other Islands we have visited are composed of a Calcareous Earth on a Base of Granite or Porphery. 14 Got underway Early with light wind contrary made little advance along the Coast — strong breeze in the afternoon. South Coast of New Holland 15 Wind more favourable and fine weather — one high Island Sc 5 bare rocks near it in the South West quarter — The inain high land with some deep bights &: a number of fires — In evening the land inclined directly from North to South a rocky Coast with hills of considerable elevation the summits of which appeared covered with Trees & more fertile than any we had lately seen — fires in different directions 16 Early in the morning stood into a large Bay with hills of considerable elevation on North and low land on South — at 8 a.m. the water which had shoaled gradually was less than 4 fathoms and all shoal ahead — put about — at this time we could 60 JOURNAL OF PETER GOOD February 16 not see the bottom ot the Bav which had niiK h the appeal aiue as the mouth of a river — but no depth of water to admit ships to enter — hght airs and cahiis it was 7 p.m. before we could pass the West point of Bay when two Islands appealed ahead — inanv columns of smoak. rising in different diiections among the hilis and several Natives seen walking on the beach, 1 7 This day we gained little wind being contrary but passed several Islands & a very barren Coast. 18 Kept working to windward the Coast consisted of great tracts entirely void of vegetation & high perpendicular Rocks of a white colour. 19 Kept working to windward — in evening came opposite a small Island near a rocky point behind which appeared a deep Bay — but hazy weather, & strong wind blowing right in kept to Sea. 20 In the morning stood to examine the Bay seen last night and about 8 A.M. could trace the Shoie all round — a large open Bay without shelter — again beat to windward & having weathered the South East point stood in behind to an opening of which we could not see the bottom — we passed several Islands and on entering the narrowest part which was not much above a mile we observed a very rapid current running out against the wind which blew fresh from South East right into this Stiaight — which having passed we still found ourselves in the open Sea 8c that the high land to the Eastward of us and which we had supposed to be the Main was only a large Island and that we had doubled a high Cape of the Main which now trended from South to North as tar as we could see — we found several small Islands between the large one and the Main but fji eakers entii elv across except where we came in — we stood to the Lee o{ the Lai ge Island and Anchored but on Sounding round found it not safe — up Anchor & stood to Lee of Sinall Island next & again anchored in a strong Current which regularly ebbed and flowed. 21 Went ashore Early and ranged among the woods with whi( li ihis Island is covered — we found a few new plants & three Set peius" were killed one of which was ver\' large also a spec ies of opposum'" &• a kangaroo of the same species we had seen on the 13tti ik 7tti inst. came on board at)out noon. Hitherto we had been very fortunate had no accident of conseciuence occurring to any of the crew. It is now necessary to relate a melancholy and distressing accident no less than the Total loss of the Maslei's Cutter & Crew" consisting of Mr Thistle Master — a man of iimch experience whose intrinsic merit MAIN lOl'RNAL 61 Fchi u.irv L' I had raised him Iroin a common Sailor to the Station he then iicld &r wliich he tilled with Ci edit to himselt and satislattion to all around him — ol Mr Taylor, Midshipman a vei^ promising young man &: the Crew ot six choice sailors — which melancholy accident happened in the following maimer. — It was considered of some importance to determine exactly the situation of this remarkaljle part of the Coast & the day fiaving been cloudy had but a bad observation — Captain theieffjre proposed remaining another day & as our watei began to run short The Master went to the Main which is high land to see if any could be got &: to sound &: observe the coast &c. The wind blew moderately from South East without any apparent danger — Mr Fowler went with the other Cutter to the large Island — just alter si^inset the Cutter was seen coming awav from the main with a stiff bieeze from South East and a strong current setting against it — The Cutter appeared close hauled and the current seemed to take her a little windward of the line she made for the Ship — She was seen distinctly for about a quarter of an hour when she was halfway from the Shore to the Ship & just to the Lee of a small Island which confines the Curient — not the least danger was apprehended — I was on Deck and lrec]uently looked at her to observe the effect of the Current — I had not taken my eyes 5 minutes from tlie fjoat when I again looked and (ould not see it — I immediately said I had lost sight of the Boat, Mr Evans who had the watch on Deck made the same oljservation, a general look took place and it was not to be seen, at this time Mr Fowler with the other Cutter was at the Island — some time was spent looking with Glasses without effect & it became dark apace — The distance from the ship to the Main might be from 5 to 7 miles & the Cutter was seen I think not more than 3 from the Ship. Mr Fowler soon came on Board — Captain informed him of his fears, pointed out to him the situation we had last seen the Cutter & recjuested him to lose no time getting there to assist &c. but advised him to be very careful not to risk his Ijoat — he sailed directly to the place wheie the other was last seen but it was now dark — he continued rowing and sailing in even direction he thought likely to meet witti them till about 1 1 by signal Irom the Ship he came on Board without having seen anything of them — but said that he got into a great reef of bieakers near the place which was pointed out to him as the last the other Cutter was seen and that it was with great difficulty he could extricate himself from it. 22 Got underwav Earlv and stood across the Straight to the Main and soon perceived the c hain of breakers where the Cutter was 62 JOURNAL OF PETER GOOD Febi nan 22 supposed to have upset — Mr Fowler went to sound and (ound plenty of water &: that it was entirely occassioned by the violence of the current— where some Islands confine it to a narrow channel and that it frequently disappears which inakes it more dangerous for boats — about 7 anchored in a snug little Bay of the Main sheltered froin every wind except East — Mr Fowler went with the other Cutter to search the different Islands in case any had got on them particularly those nearest to where they were supposed to be lost & where the current might cariT them, while Captain and party landed on the main &: walked along the shore in one Direction & Mr Brown & party in another — Mr Fowler soon found the reinains of the Cutter near the point of the Main which sheltered the present Anchorage from the South East winds which seem prevailant here — The Cutter had been on shore & broke to pieces & no part of the Crew about it — and at night when all parties had returned on board nothing was found but broken fragments of the Boat on the Beach &: some oars — Mr Fowler also found the Compass Sc binnat le floating &: imhurt — thus all hopes of finding any of the Crew alive \anished. 23 Captain went with Cutter to search to leeward most fragments were found in that direction — Mr Brown & I went to the Top of the hills &: collected a few plants — The Shore was searched in every diiection &: nothing found but trifling fragments & Captain found floating a small cask in which Mr Thistle used to carry his licjuor. 24 I went ashore at Mr Browns desire over the same ground we had gone the 22 to gather some things which anxiety to search the shore had then prevented us — Nothing belonging to the Boat was found this day Mr Fowler in evening drew the Seine and caught many fine fish which wete distributed among the Crew — This part of the Country forms a long Neck of land which streaches South East a great way into the Sea & is narrow — from the mountains we could see the Sea on both sides — Its surface is almost entirely covered with a very rough hard calcareous stone which renders it difficult to walk — The base is Granite of various degrees of fineness and some \cins of other substances — The surface is almost entirely covered with f)ushes chiefly of the Eucalyi)tus kind — with some variety of other things — there are lew places which have any soil but the bushes growing among the tiaie loose calcarious stone No water was found licre altfiough ttiere nuist be water at some seasons for at the Bay on the Beach were several huts beltei built than any we found about King George's Sountf — some pans of tlie counti7 had been lately burnt. MAIN JOURNAL 63 February 25 Took our departure from this Bay which Captain named Memory Cove as a small tribute to the memoi7 of the brave fellows who were lost there — he caused to be fixed on shore a plate of Copper commemorating this melancholy and disastrous event — with the date of our anchorage here &c. We stood along the Coast to the North 8c passed several Bays and Islands and alterwards stood to West into a large Bav with manv Islands and anchored to Leeward a small hill — went ashore in afternoon &: collected a few things among which a new Opposum'" — found no fresh water. 26 Went ashore Early as also Captain & Draughtsmen & ascended the nearest hill where we had a fine prospect of the Bay which is spacious and convenient with numerous places for Anchorage we saw near the top of the Bay a Lake which we supposed fresh water came on board at 10 and immediately got undei^way & stood up the Bay with a fair wind — it is rather shoal from 4 to 6 fathoms water Anchored about one and went ashore directly with Captain & Mr Brown to go to the Lake on arrival we found the water slightlv brackish in the marshes near it we found fresh water — this Lake is near two miles fiom the harboui — on return we found marshy ground near the Top of the Harbour and small pools of fine fresh water in which the Captain expected to be able to water the Ship — In this excursion we collected several new plants. 27 The launch got out and Ship moored early 8c a party landed to dig for water Tents erected and instruments taken ashore to try the late of the Timekeepers — Mr Brown and party went to visit a high hill to North of Harbour where we had a fine prospect of the country which consists of hill and valleys — the whole country had been lately burnt a few spots excepted — there were seveial fires at no great distance — we saw very distinctly the high hills to the North of the Bay in which we were the 16th instant — they did not appear more than 20 miles distant. 28 I went ashore at Mr Brown's desire to South of the harbour but met with little new — Captain went to the hill we had been on yesterday also to some Islands in the Mouth of harljour and to a smaller Lake to south of Ditto which he found to be very Salt although it has no communication with the Sea — Ship's Company bussied watering the Ship. Maixh 1 Landed with Mr Brown and party to walk round Lake seen on our arrival heie on reaching what we considered the extremity of this Lake we found that it had two more Arms — each nearly equal in si?.e to the first — which had been hid by their different direction and some Islands covered with wood — we found 64 JOURNAL OF PETER GOOD M.iK h 1 considerable morasses of fresh water on the North shore oi this Lake which is but slightly brackish — on arriving al the tai ther extremity we ascended the low hills & found oiirscKes on tlie Shore of the main Ocean and the Bay which we had looked into on 20 instant which is large open and exposed & a dreadful surf all round — hei e we saw the mainsail of (he Cutter so laieh lost — two Arms of this Large Lake run each to at)out half a mile from the Main Ocean and the other extiemily about 2 miles from the Harbour & seems to have no communication with either — we found little interesting in this excursion. 2 Employed in preserving former collections — Captain went to the largest Island in mouth of Harbour & at a Signal agieed on three Great Guns were fired from the Ship with the view to measuie the distance. 3 Took a walk in neibourhood with Mr Brown & collected a few things — In evening Mr Fowler with Cutter provided for two or three days set out for Memory Cove to look for the body's of the Crew of the Cutter lost there the Ship ha\ing near compleated watering. 4 Took a walk in the neibourhood bv mvself and saw 4 large birds of the Ostrich" kind but was a considerable distance from them — Two of the natives were seen near the Tents & a hut was found in which were found 1 7 spears & some other implements — This day the Captain was on shore with Telescope attending the Eclipse of the Sun which was almost Total only a small part of tfie lower limb was not obscured — The dav was lather cloudy but it was tolerable distinct even to the naked eye — This day watering the Ship was completed. Tents stiiick. Launch hoisted in and everything readv for Sea. 5 Unmoored and got underway early Sc stood on to the first Large Bay in mouth of the harbour and anchored about 10 AM — In afternoon went ashore on South pcjint but met with little new — Mr Fowler returned with the Cutter from Memorv Cove without having foimd any of the wreck of the Cultei or any part of the Crew — The counti-\' aioimd ttiis large Bav or haibour is composed chiefly of calcarious matter the greater pai t of the surface loose rough calcareous Stone — some places it is coveted with fine light soil in some places red &: ottiers t)la( k — there are many places which might be rendeied fertile bv Cultixalion but theie seems to be a geneial want of water everv pai I of tliis Coiiiitry whicti we had yet visited — but this was probafjly none inferior to the neihbourhood of King George's Sound^The country is more open and no Timber equal to what might be got there — but the soil appeared better adapted for cultivation. MAIN JOURNAL 65 March 6 Got underway in the morning & stood to North & North East &: anchored in evening near a small Island — with some others in sight & one ot considerable size all low and considerably distant from the Main — strong Current. 7 Went ashore on small Island which is chiefly Granite & vei^ barren — at noon up anchor and stood to the Northward with a iresh breeze — according to the Custom of the Navy, Yesterday were sold at auction the ellects ol the Crew ot the Cutter lately lost which was this day completed & some regulations took place to fill the vacancy of officers Mr Evans Master's mate was appointed acting Master Sc Mr Nathaniel Wright Seaman, for his meritorious conduct was promoted Midshipman. 8 Stood on the North East with a stiff breeze, a hilly coimtry appeared with some low points on shoie with hills rising behind hills in land, about noon land trended Eastward and in aiternoon land appeared (jn both side, in evening we stood to west shore to Anchor, but water shoaling suddenly to less than thiee fathoms put about and before dark anchored in the open Sea without shelter — wind blowing fresh with hazey weather — high land to the East and hilly counti^ with low shore to the West some land in appearance of Islands to North. 9 Lip anchor in morning and stood North with a sti ong southerly wind — after some time stood East and passed a deep bight and again stood North with a chain ol mountains the most considerable we had seen in New Hollaiul to the East and a hilly counti7 to the West with a channel between 8 or 10 miles broad — the wind blew fresh from the South stood right betore it about 4 hours when Shoal water appeared ahead, immediately put about and while in the act of wearing there was about 2 fathoms water while the Ship drew 13 or 14 ft. &: it must have been owing to the heel which was then considerable or she iriust have grounded — we soon got into 6 fathoms and anchored — for tfie last two days we had vei^ regular soundings from 12 to 6 fathoms for the last 50 or 60 miles seldom more than 6 fathoms till in this channel which deepened to 12 or 14 &• again shoaled suddenly. 10 Went ashore at day light with Mr Brown and party of 7 in number to visit the chain of mountains to Eastward of us — we were obliged to wade knee deep in mud and sea weed for upwards of a mile at landing low water and the Tide having left that space — we still foimd the space of several miles the land very little above the level of the Sea with manv winding Creaks of Salt water which are filled by the Tides — In these salt marshes & on banks of Creeks grow a c]uantity of a kind of Mangrove 66 JOURNAL OF PETER GOOD M.ii th 10 Trees — The whole country for 10 or 12 miles from the shore appears to be inundated at some Seasons, the soil is entirely composed of mud which has been washed down from the mountains or from the intcriour oi liic countn hv floods we directed our course for the highest hill which Terminates the range to the North, the distance was much greater than we expected & it was past noon before we arrived at the bottom of the mountains — we had not ascended far when Mr Browns servant being overcome by fatigue & heat could not proceed, soon after Mr. Westall's servant was in a similar state we directed him to go back to Mr Browns servant and to go to a spot at the bottom of the mountains where was some appearance of water and there wait for us — It was very near Sunset before we reached the summit when we had a most extensive view probably the most extensive ever had in New Holland, being elevated full 3000 feet above the level of the Sea and it may be said 100 miles in the heart of the CountiT — on the Stnith was the range of mountains rising behind each other with ravins &r deep gullies from these mountains to West was a great tract of low land, the River or Arm of the Sea &: a hilly countrs beyond, fiom which to North was a level plain as far as the eye could reach with the continuation of the River gradually diminishing till it was lost in the low plains to the North froin which to the East & round to South was a vast plain terminated by a range of hills paralcll to what we were on riming from North to South — having gratified ourselves with viewing this extensive and boundless desert we begun to descend with all expedition, but were soon overtaken by darkness & some of partv being overcome with fatigue on arrival at the bottom of a deep Gullie we thought fit to sjiend the night but it was spent ven' uncomfortably — little fit e wood could be got the night air was vers cool in this elevated situation — the ground was full of stones and so uneven that we could not lay — add to which soine had no water having trusted to finding water among the mountains & we had not been so fortunate as to find any — The morning was anxiously expected few of the party having had any refreshing sleep. 1 1 As soon as day appeared continued om descent fi om these moiuuains and soon came to where we had diieiled the senants lo go, and foimd them vers' comfortable with plenty of fine water and a gootf fire, here we drank with an cxtjuisite relish eal some musty bisquit & Salt Beel and sufficiently quenched our thirst with this delicious spring — here we found a species of Tobacco'^ & several new plants — we reached the shore about five in the evening & soon got on board, having suffered considerably for MAIN JOURNAL 67 March 1 1 want of water the heat being so great as to cause much want of that article — In this excursion we found mucli less variety in tlie Vegetable Kingdom than was expected — This country produces little Timber — on the mountains many Trees of Cassuarina of a moderate size and in the Gullies and on banks of rivulets fiom the mountains which were now dryed up grew some fine Trees of Eucalyptus These mountains are chiefly composed of a kind of Schistus or slatestone which are generally loose on surface few pieces of solid rock being seen There is also Quartz and a mixture of Quartz with other substances — On arrival on bcsard we learned that Captain had left the ship soon after us to sail up the River with the Boat &: that he was not yet returned he returned before 1 1 at night having sailed 15 or 20 miles up the River which he found at first brackisfi & near to its Sources quite salt 8c met with no fresh water — saw many Black Swans but they were so wild none were killed — some Ducks weie killed — saw a native Dog — several huts were seen & recent prints of the feet of Natives in the mud both by Captains party &: ours but no Natives though their fires were vet^ near us — some decayed bones were found near the Spi ing which from their structure appeared to be human — from bearings & obsei-vations the mountain on which we tiad been was 16 or 20 miles from the Ship 12 Employed securing our collections without anv thing remarkable 13 U]) anchor at day break & stood to South with a westerly wind — before 8 got aground on a mud bank with which this shoie abounds — as it was a gentle breeze got the boat out with a Kedge Astern & soon hove her off without any damage — The whole day had shoal water and in great danger of being aground as it frequentfy shoaled suddenly — particularly near the East shore it would scarce allow us to near enough to see the shore from Deck anchored in evening quite exposed 14 Up anchor early but were still obliged to keep a great distance from the East shore — Anchored in evening several Leagues from land in sight of the Mountain which we had visited though distant 70 miles — we could see the chain of Ditto for 100 miles from North to South 15 Up anchor early & stood along the Coast the soundings were more regular but never moie than 15 fathoms — Land seen distinctly on both sides the bay Anchored in evening some Leagues from East Shore 16 Got underway early wind contrai^ kept working to windward with land on each side 68 JOURNAL OF PETER GOOD March 1 7 Out of sight of land in morning stood to Eastward & soon came up with it and kept woricing to windward along a ven" barren Coast — the greatest part of the Surface absokaely bare either white sand or stone of that colour all low land, having lost sight of the range of mountains 18 Passed several points which streach considerably to Westward at before 10 in evening Anchored near a point which was lor sometime thought to be an Island, so that there is a bight to East of this point, a fire was burning near the Beach & Natives walking about it 19 Got underweight in morning with a Southerly wind and stood to Westward and soon came in sight ol the high Island where we had anchored on 20 February, we stood in that direction with a light wind till 4 PM when seeing Breakers ahead &: wind veering more to West put about — at this time we could see Menioi v Cove & the Main for a great distance as also several Islands — one high Island to Eastward had been seen nearly all dav — Moon Eclipsed. 20 In morning in sight of the Main to South East and neai the high Island seen yesterday to the East, also in sight of the high Island near MemoiT Cove, so that the mcjuth of the Bay or Gulph cannot much exceed 30 or 40 miles — about 10 AM saw an extensive high land to South & South West at a considerable , Distance — low land to East Sc a large opening to South East where no land could be seen. Some rocks or small Island oil the East point — Becalmed a great part of the Day — in evening a Breeze springing up from West which increased to a gale &: varying to South West. 21 Blew a fresh Gale, with high lanci to the Southward, streaching to East & West as far as we could see on coming near the land we found ourselves much sheltered, with smooth water imder the land stood to the Eastward, the whole country covered with wood, we passed two deep open Bays which rim in to South oi South West and anchored in the Evening well sheltered by high land near the East point a high point of land to Eastward unconnected with that by which we Anchored 22 Went ashore Early and ranged among the woods with w hu h tins coimtry is covered and collected a few plants. On landing we lound Seals Sc large Kangaroo's'^ ven plentv and (luite lame, so much so that in the coinsc of the lorenoon neai 30 Kangaroos were killed the largest of which weighed 130 lbs and the smallest 70 lb- — this proved a valuable acc|uisition to the Ships Crew as c'veiT man had as much fiesfi provision as lie could make use off — this circumstance of finding seals & Kangaroos which MAIN JOURNAL 69 March 22 appeared never to have bee]i disturbed before convinced us we were on an Island 23 Went ashore in morning and walked to Eastward where I found several new plants, came to a spot where fresh water rises in tolerable plenty from the ci evices of rock near the Shore a party landed to shoot kangaroos but had bad success only few were killed they were now very shy, 4 Emoos were seen but none killed saw fire on what we had supposed a high Island to Eastward This Island from what we saw of it cannot be much less than 100 iniles in length — it is entirely covered with wood hilly and in many places a considerafjie Depth of rich soil Sc vei7 capable of Cultivation, there seems to he a general want of water here as in evei-y place we had visited on the Coast ot New Holland, but this certainly merits the preference for the purposes of Cultivation from any we had yet seen. The Base of this Island is chiefly composed of a kind of blue stone laying in strata ot different thickness and rather irregular direction but generally at an angle of from sixty to 80 degrees — It is mixed with partial viens of Quartz & mica in very irregular directions at the shore the rock is generally hard & rather inclined to a black colour and as it advances froin the Shore it becomes of a feinter colour till it is almost white &• high up it becomes more of a Grit stone fcjr much of that near shore is so soft that it will easily cut with a knife. 24 Up Anchor early &: stotxl to North West with a Westerly wind and passed the mouth of two deep Bays in the Island we had just left at top of these Bays the land appeared low with some little hills in land raising their summits above the others. 25 In morning near the point where we were on 20th stood to the Eastward with a low barren looking country to the North in afternoon wind veerecf to Eastward. 26 This & following day we kept plying to windward with little success at each tack alternately making the high Island & the low shore 27 At noon feeing nearly calm & a current taking us to Westward came too with a Kedge Anchor in 15 fathoms near the large Island l:)Ut 8 or 10 miles to West of where we had before anchored, at 3 PM a breeze springing up liom South up anchor &: stood to Eastward and parallel to the high point ol land which we had at hrst taken lor an Island about ^ past 7 light was seen on starljoard bow at a considerable distance which became more & more distinct till several were seen and continued the greatest part of the night 70 JOURNAL OF PETER GOOD March 28 Becalmed in morning with the land to Eastward of us having a promising appearance hills of gentle elevation near the Shore & rising gradually hills beyond hills for some distance the most distant ol considerable elevation with large vallies or planes between from some of which smoak issued — about noon a breeze springing from the South stood along the coast to North the land soon began to trend to Westward, the land next the Shore perfectly level Sc low with the waters edge forming a large plane bounded on the Eastward by a high range of hills whit h in parts of the ascent appeared broken lock with little vegetation but towards the bottom of the hills appeared well wooded & the greatest part of the summits were covered with vegetation, much smoak rising between the foot of the hills and the shore. The water shoaled gradually & we were obliged to haul farther fiom the shore, about sundown anchored in 5 fathoms water sevei al Leagues from land little current perceptible here — hazey weather 29 Morning Calm & serene land visible both to East and West & all round to North except some openings to North West where we could not see the bottom, Up Anchor and stood in that direction with a light air from the Southward, about noon water shoaled to near three fathoms, hauled to Westward when it deepened to 8 or 9 fathoms & again stood to the Northward The water again shoaled to 3^ fathoms with scjually weather, again hauled to the West when water deepniiig again stood to the North and Anchored in the evening about two leagues from land on either side &: where could see the bottom of the Bay which seemed to terminate in Shoal water in eveiT direction. All low land on shore Sc rising gradually in land but no ven high land in view 30 Captain & Mr Brown went with Cutter Early intending to go to the top of the highest land in sight which was to the North they had at least three leagues to Sail before they could reach the shore in that diiection — the distance from the shoie prevented any other Boat from gt)ing ashore — The day was very fine and Cutter returned in ttie dusk — They had not been able to teach the highest land it was inoi e distant than they expected, found the Bay to terminate without any river or inlet and a low country with gently swelling hills — not much wood but plenty of grass which was parched with drought 3 1 Up anchor early and stood to the Southward with light winds fine serene weather April 1 Light variable winds, fjefore midnight anchored a little to Westward of where we had anchored on 22d Man h MAIN JOURNAL 71 Anchorage XIV south coast of New Holland April 2 Went ashore in morning with Mr Brown & party and ranged along the Shoie to South West making occasional streaches up among the woods — but found little but what we had before seen — Captain went early with a party to top of the Bay where 4 Emoos were seen, several partys landed to kill Kangaroos, they were now so shy that they had not much success however so many were got that all hands had again fresh provisions 3 Up anchor early when finding the Timekeeper had stopped. Anchored again & moored — wooding party went ashoie and some parties in search of kangaroo's. Several Emoos were seen 4 Went ashore Early & took provisions for two Days intending to penetrate as far as possible through the woods. Messrs Westal & Allen were of the Party — while Captain & Mr Brown went with Cutter to the top of the Bay to explore it and to endeavour to reach the top of a round hill which appeared some distance in land at top of Bay — I penetrated a considerable distance up a Gully near the Eastpoint &: from that to the summit of the hills but the trees were so thick as entirely to prevent any extensive view of the counti^ — In this excursion I met with a few new things and returned in evening to the Spring where I found Mr Westal & Allen and where we spent the night 5 Took a ramble through the woods 8c killed a beautiful bird of the Parocjuet kind & a kangaroo, a boat came for us and one of the ci ew attempting to kill a Seal had his leg bit by one in a very dangerous manner. Mr Westal & Allen had little success in killing kangaroos & birds saw many Emoos but killed none Got on board about 6 in the evening, where we learned the Cutter had come in the morning, that they had found an inlet of the Sea which took them quite to the foot of the hill they proposed going to, which proved to be composed of sand and from which they had an extensive view of the island which composes two large Peninsula's joined by a narrow Istmus not above two miles broad from the extreamity of the Inlet to the opposite shore but they could not see the extent of the land eithei to East or West, they found an imense number of a singular species of Pelican*' some of which they brought on Board, a party in evening cutting Brooms saw 14 Emoos South coast of New Holland Unmoored Early, and got underweigh — but wind shifting to and Current against us anchored again vei7 near where we had 72 JOl'RNAL OF PETER GOOD A|)i il b Anchored on 22 March — past noon current being more favourable Weighed and plyed to windward & before 1 1 PM anchored in a bay of the same Island — in the streight which seperates it from a high point of the Main — The Streight about 3 leagues broad — rwo small Islands or rather rocks near the middle of the channel 7 Weighed Early and plved to windward — and cleared ihis fine Island where we had been so well refreshed and which appears to me to be the most desirable place we have met with on the Coast of New Holland from what we saw of it, it cannot be less than 100 miles in length it is covered almost evenvvhere with a light red loam very favourable to Vegetation, in manv places a considerable Depth — The Trees Sc vegetables which are indigenous to this Island are more varied than any we had before met with — It produceth 4 or 5 species of Eucalyptus as many species of Mimosa all with entire leaves — 4 or 5 species of Melaleuca with some other plants of the Natuial order of Myrtus 2 species of Correa one Alyxia several Syngenesus plants. Atriplices 4 or 5 species of Fern Dodonea, Casuarina, Anthericum, several species of Grass, Lichens, with some others Its Animals also various the most considerable are the Kangaroo of which it has two species differing chiefiv in size very large Gouanas*' some lizards'* & with manv insects The feathered race is here in great variety numbers & beautv and many have fine notes the night I slept on shore we heard about 1 1 oclock a bird calling exactly like the Cukoo." The first of the feathered race is the Emoo — a large Eagle" was seen here a large Sc curious Pelican a brown Pigeon" ver\- numerous. Quails,'" and great variety of the Parrot tribe some of which are decked in the most elegant plumage, with a great number of small birds — the scarcity of water seems a great bar to the cultivation of this fine Island as we found it only in two places about h
3 with a considerable Sea & water again deepened the boat was called back Sc towing along side with two men to take care of it. about 4PM by some unaccountable accident the Boat hlled &: swamped along side The men were both swimmers & both got under water at first but one soon appeared again & took hold of the wreck & was soon picked up without having received any iniui7 the other was never seen when the man was sale the Ship Anchored & picked up the wreck of the Boat which taken on Board & repaired some oars &c were lost 4 Weighed early & stood Northward & before SAM Anchored near the main with a large Island to Eastward distant two or three leagues. Mr Brown & party went on Shore &: ranged among the woods &: collected several fine plants we fell in with some extensive Marshes &: fresh water lakes — near which we found a burying place of the Natives which consisted of poles or lather Trees hollowed by age or art & the Corps placed in the hollow of the Tree pushed in feet first at the Thick end of the Tree, which is then raised perpendicular & the Small end fixed in the ground & the Skul just in sight at the Top — Three of these poles stood together in one place &: some fallen down each of which contained the Skeleton of a human body these poles were from 12 to 18 feet high, the sniallest we took down Sc found some of the bones curiously painted with Streaks of red — five Skuls were found at the bottom of the poles well covered with baik — three other poles wete found about 100 yards distant with each a Skeleton — but had fallen down from age — Theie were some neat & large bark huts near the Standing poles 5 Weighed Early & Stood Eastward & again South & South West past some openings & Islands Sc Anchored in evening. 6 Weighed early ply to South West Sc in evening past the South West point ol a large Island where ttie land Tiendcd Eastward & Anchored 7 Weighed early & plyed to Eastward but made little progress 8 Weighed early Sc plyed to Eastward the contrary wind made little progress 9 Weighed early with a light wind from South West Stood easterly and passed among a number of small rocky islands of a point of the large Island found a strong current — past noon having past the East point of the Large Island stood Northerly &: Anchored in evening between a small rocky Island & the large one 10 Weighed early &: rocky bottom &: great inequality of Depth dejilh Sc seeing a i ippling on the water very near Anchored again & sent the Boat ahead to sound soon weighed again & past very near 110 JOLRNAL OF PETER GOOD Jaiuian 10 some rocks at the waters edge & afterwards some Bays in the large Island & Anchored in the evening 1 1 Weighed early & plyed to Northward with wind ii om thai quarter made little progress — fine weather 12 Weighed early & attempted to pass to Westward between some small Islands & large one but hnding Shoal water put about & plved to windward wind North made little progress 13 Weighed early and plyed to windward &: Anchored at 10 P M 14 Weighed early & plyed to windward & about 1 1 A M not being able to weather a rocky point Anchored & Captain Mr Brown Bawer and Westall went ashore — past noon a Breeze springing up weighed &: stood past the rocky point Sc Captain & party came on Board we then stood to the Southwai d into a spacious Bay which affords good Anchoiage & Anchored. On small rocky Island where Captain landed they found plentv of Nutmegs and saw dome paintings done by the Natives with Ochre on the rock in imitatioir of fish turtle Kangaroo.'^* &c. &:c. 1 5 landed in morning with Mr Brown & parry on the East side of the Bay &: collected several plants saw^ no fresh water Sc little traces of Natives & None recent 16 Went ashore in morning in Company with Mr Bawer &: Allen on West side of Bay & collected several new plants. Mr Westall went to the Small Island called Cavern Island where Captain had been on the 14 to examine the drawings of the Natives & brought many nutmegs on Board — some of the Sailors ashore for amusement — The Rock here is chiefly free stone of different degrees of hardness, the Country barren Sc without fresh water as far as we Saw 1 7 Weighed early but made little progress to Westward Anchored in evening 18 Weighed early Sc stood Westward & about 11AM anchored to South of some small Islands in Sight of Groote Eylaiul. Captain Mr Brown Bawer Sc Westall went ashore — leturned in aiternoon & a party went ashore to remain all night and Catch Turtle 1 9 Early the Boat returned with party & one Turtle Weighed 8c stood North West Sc passed several Islands Sc about 4PM Anchored to South of a small Island Sc land with Captain Mr Brown Sc Bawer & collected a few |)lants 20 Weighed early & stotjd North West passed some Islands Sc about 4PM Anchored to South of a rocky Island of moderate height and went ashore with Captain Sc party & collected some new- plants — found fresh water &: saw the print of the feet of Natives very recent on the Sand MAIN JOURNAL I 1 1 January 21 Early a party landed to cut wood, boats also went to fish &c. about 9AM went ashore with Mr Brown & party with Directions to return by | past noon — we crossed the Island to the opposite Shore & collected several plants Seeds & returned to the landing place one P M The Boats weie then ashore taking on board wood. The Captain not yet returned from Svn-veying the Island — we had not been long at the Beach when Mr Westall Sc Servant came to us with information that they had seen a Canoe come Ironi the Large Island to Eastward from which 6 Natives landed ven' near him &: had chased him all the way to verv near us some ol our people who were getting water which was some distance from the Shore were chased down by them, & party of us then went to meet them but Seeing so many they run away although we attempted to have an interview by one person going to them unarmed, we followed them to the Top of the Hill & finding they would not come to an interview returned & the Boats being ready put off — The wooding party Still remained on Shore the wood not being all brought off — on the way to the Ship the report ol some muskets were heard on Shore &: after we were on Board one of our people was seen coming down to the Beach supported between rwo other several Muskets fired on the Beach &c. Two Boats immediately went ofl one in which was the Surgeon to bring off the wounded man & the other in which Mr Westall went & if it was found the Natives had made the attack to go round the point to wheie the Canoe landed and bring it od. The Boat soon returned with Mr Whitwood Masters Mate who had received 6 spear wounds in different parts of his body The other Boat went round the point to where the Canoe landed, in afternoon the other Boat went ashore &: brought off the wood and also Bengamin Morgan a Marine who was taken vers ill Irom heat & latigue he was when taken on board quite senseless & continued in violent convulsive fits with intervals of ease till about 9PM he expired, about 10 P M the Boat returned & brought with it the Natives Canoe which proved of bark but well executed & strengthened with sticks &: braces Sc large enough to contain 6 men From the reports of those concerned it appeared that soon after the Boats put off for the Ship between I & 2 P M the Natives to the number of 6 appeared on the hill, that Mr Whitwood with a loaded musket & Mr Allen unarmed went up to them & desired the men to keep near 200 yeards distance behind them with more arms ready Mi Westall &: Allen were about 30 yards distant & the Natives divided themselves 3 to each, those nearest Mr Alien had laid down their spears & had exchanged a green bough with him that next Mr Whitwood (who still kept his musket) held out a Spear which Mi Whitwood held out his hand 112 JOIIRNAI. OF PETER GOOD Januan 21 to take hold ol when he run it into his breast he then attempted lo fire his musket but it missed fire Mr Allen seeing this run down the hill & Spears flying past him but was fortunate enough to escape them. Mr VVhitwood also run as last as he could but several Spears having hit him & one hatiging in his Side he turned presented his Musket whic h now went off & he Supposed wounded the man nearest him as thev all retired the panv liom the Bottom of the hill being also near & one having fired a musket — The wooding party then Crossed the Island to meet the Boat where the Canoe had landed but meeting the Boat & not finding the Canoe they returned to the landing place — They again went back in the Dusk of the evening when they saw two Natives cariT the Canoe on their heads to the Beach when they came up they found three Natives in it paddling awav from the Shore as fast as they could & saw another man coining to the Canoe who on seeing our people between him & the Shore ran back into the Countiy our people immediately fjegan to fire their Muskets loaded with ball & Buck Shot at the Canoe & soon perceived one Man to fall down in it & the other two leaped out 8c swam — one of the men then went out to the Canoe & found one Native in it dead who had on his head the hat of the man who found him and in pulling his his hat off the head of the Corpse he upset the Canoe & the corpse dropped out & was not found 22 Early a Boat went & brought off the Dead fjody of the Native which was found on Shore at high water mark very near whei e he was seen in the evening — he was under the usual size measuring only five feet six inches, he had some resemblance to the generality of the Natives of New Holland — a long beard, high forehead, thick lips Nose short thick & turned up — he had many bracelets on his arms & a band round his middle on whic h was fastened a piece of bark to ccncr his pi ivates which appeared to have been circumcised as he had entirely lost his foreskin but no scar remained. He was dissected & his head put in Spii its &: the body cjf Bengamin Morgan comitted to the dee|> with the usual ceremony — about ^ past one P M weighed & stood westward — Anchored in evening 23 Weighed early &: finding Shoal water & little prospec t of a passage to North between the Island &.- Main stood lo Eastward &: about 4PM was suddenlv taken abac k witli a tieavy scjuall accompanyed with Thunder lightning Sc heavy rain fc so dark that it was loinid necessan' tcj Anchor as we had land all lound, rain occasionally although 24 Weighed early & before SAM was taken abac k with a lictvy MAIN JOURNAL 1 13 Januai7 -4 squall willi rain Anchored — squallv weather &: wind Easterly all day 25 Weighed early & plyed to windward Eastward & at 8 in the evening Anchored to Leeward of an Island 26 Weighed early &: stood Eastward Sc about 10 AM Anchored off a point 1)1 land & soon went on Shore and collected seveial plants Captain &: party lell in with a fine lake ot tresh water & well stocked with Ducks — Saw some huts ul Natives made ol Baik — trom the appearance of the land supposed it a point of the main, all low land and very sandy 27 Weighed Early & stood North West into a deep Bay with some little hills on the Westside — in afternoon Anchored near the East Shore oi Bay and a Boat went ashore with Mr Fowler &: Mr Bi own about 7PM Mr Fowler retiu ned with the Boat without Mr Brown who had lost his way he had a Sailor with hini. about 8 a Great gun was fired &c. and at 10 the Boat went ashore but Mr Brown was not arrived 28 Early the Captain set out for the highest hill on West of Bay accompany with Messrs Allen & Westall about 7AM Mr Brown was seen on a jjoiiit to South East & a Boat went tor him — about 9 1 landed with Mr Allen &: Mr Brtiwns Servant & collected several plants — tell in with a large Marsh &: Iresh water very Shoal much trec]uented bv Ducks Cranes."'' Saw two Emoos — Some Showers ot rain 29 Weighed Early Sc plyed to Eastward — wind c outran' with frequent stjualls and heavy rain made little progress & Anchored in e\ening very near our last anchorage 30 Weighed early &: plyed to Eastward a heav7 sc]uall obliged us to Anchor betore 8 A M — In atternoon weighed again &: plyed to Eastward all night 3 1 Kept plying to the South East wind dving away Sc in evening trom South West with a heavy Swell in evening Anchored at our tormer Anchorage on the 26th February 1 Weighed Early & worked to Eastward & when clear oi the land Stood South East and afterwards North East with a fresh Breeze Sc considerable swell 2 plyed to North East alcjiig an indented Shore in Atternoon mio a large Bav & anchored near Some Islands 3 Earlv Mr Allen went with Boat to look for water — about 11AM weighed and stood farther in Sc soon met the Boat Mr Allen had not Seen any watei — Stood on into a fine Sheltered Bav saw- some Natives on tlie Beach & Anchored before 4 P M & Mi 114 JOURNAL OF PETER GOOD Febi uan 3 Fowler went to look lor water — met a parr\- ol Natives about 1 2 who conducted him to water ven,' convenient on the Beach & were verv friendly 4 Early a Strong party went ashore Tents landed & boats to fish fee a party of the Natives about 12 in number met us at the Beach very friendly Mr Brown &: party walked across the Country & were followed by most of the natives, it appeared evident that they knew the effect of fire arms — they were all unarmed & very friendly & rather intelligent compared to the other inhabitants of the countrs' — in our progress we fell in with a large Mangrove Swamp & Creek of Salt water which appeared to extensive for us to go round this dav Sc we begun to return bv a different way by what we had gone, the Nati\es endeavoured to persuade us to go round the Mangroves but as we did not comply with their wishes &: had sat down to put up some specimens they sat down with us when Suddenly one took an opportunity &: Snatched a hatched from Mr Westalls Servant &: run off all the Natives run off but one who sat with his back in that direction & did not see them, this one carried a hatchet which has fjeen given him I proposed detaining him Sc securing the hatchet he had in lieu of the one Stole, but Mr Brown objected, the man remained with us vers unconcerned & some of the other being still in sight Mr Brown went towards them Sc enticed three of them back as we were walking gentiv towards the Tents, one of them suddenly snatched a Musket from Mr Browns servant Sc run off with it the others all run off at the same time. Mr Bawer fired his Musket at the man who Stole the Musket but it did not take effect &; we soon lost Sight of them, we then returned to the Tents Sc Messrs Brown &: Bawer went on Board with the Captain &: afterwards to a point on west side of the Bav — langccf in the Vicinity of Tents & collected Several plants Sc tell in with a number of fireplaces similar to what is mentioned at Island h but hei e tlu\ ajipearetl of an t)ldcr dale Sc several stacks of Billet wood remained — In the afternoon some of the Natives came Sculking about the Tent Sc an interview was obtained and they were given to luiderstand thai if they woidd return the Musket they would receive a hatchei which they promised to perform & soon actually did but somewhat damaged Sc without the ramrod Sc soon became familiar, they pretended they had beat the man which took ii bui pretended not to understand any thing of the Stolen hatchei 5 In morning Mr Brown inforincd me I might go on Shore & lake a box from the Garden lor Some plants. Employed me shifting plants till Boat was ready & the box could not be got out of the MAIN JOURNAL 115 Februai'y 5 Garden in time as the Boat would not wait a moment no other opportunity affected till near 3PM when on landing I learned the natives had been very friendly at the Tents till about 2 P M when one had stole a hatchet &: all disappeared our people had pursued them some time & the Corporal of Marines was missing & two men in Search of him. he came to the Tents in the evening having been taken with the cramp very ill & unable to walk & it was with great difficulty he reached the Tents, he was carried on Board — In the Morning Mr Brown 8c Bell had been employed with the Natives in learning their language Customs &c. — and in afternoon Captain with Mr Brown &: Westall Set out with Boat set out for Some hills of moderate elevation on South West Side of the Bay with intention of staying all night 6 In morning went Ashore &c examined the vicinity of the Tents 8c conipleated the Box of plants for the Garden — I searched the neighbourhood of the Tents but could not go far for the Natives, none of which came near the Tents this day. In afternoon the Captain Sec returned having met with some fine rivulets of fresh water running from the hills to the Beach 7 In morning the Natives came to the Tents bringing with them some fruits, honey & some little roots probably of a species of Grass which eat very pleasant two of them were taken &: confined, one was soon liberated & given to understand it was expected he would return & bring with him the Stolen hatchet which would procure liberty for the other, they continued near the Tents in considerable numbers till the afternoon when they all crossed the Creek to the North In the afternoon Captain went on Shore & took the Native into the Boat & Sailed to the North ot the Creek near the Natives, when Several of them came to the Beach 8c made Signs lor our people to land, and to induce them presented a young woman, called Bungei7 & gave him to understand he might have her if he would land — They pretended the inan who had stole the hatchet had carried it a great distance & that he belonged to a different Tribe. The Native was then brought on board, he expressed much anxiety when tore from fiis friends, on Board iie was tofeiable cficerfid appeared sensibie eat fish 8c bread heartiiy, but refused to drink Spirits, looked very attentively at evei^ thing he saw & seemed, quite confounded, on Seeing Sheep 8c Pigs, he took both for dogs & gave them the same name — 8 It appears they have some knowledge of Botany and distinguish the different Trees &: vegetables bv distinct naines In morning the Native eat a hearty Breakfast &: seeing boats prepare to go ashore, seemed very anxious to go, appiying earnistly to 116 JOURNAL OF PETER GOOD Februan 8 Bungen' for that purpose — Mr Brown & Parry of 6 landed on the North Shore where we saw several natives running among the Bushes belore we landed & on landing two of thcni kepi in Sight of us — & letreated as we advanced into the wood which is not verv thick here — the two continued about Musket Shot from us while we kept advancing into the woods & finding ourselves closely watched & likely to be taken suddenlv in some place where we could not well defend ourselves, as there was reason to Suppose, they weie collecting their force we returned for the Beach, immediately on our retreat they gave a Shout which was answered at Some distance & in a few minutes a number of about 12 men appeared with great bundles of Spears & throwing Sticks & came pressing upon us — on presenting a Musket they retired a little distance but when we walked towards the Beach they followed us close Sc attempted to surround us & on coming near the Beach they became so daring as to Ship their Spears & to disiegard pointing a musket at them. 8c we found it absolutelv necessary- to fiie on them. Mr Browns Sers'ant & Mr Allen each fired a musket at two of the most daring & I believe wounded them they then retired & soon dissappeared, & we returned on board. The prisoner was taken on Shore & had attempted to make his escape from the Tents but was soon taken. In afternoon Captain went on Shore & he was liberated he endeavoured to prevail on Bungery to go with him, gave us to understand he would bring back the hatchet & went away well pleased 9 Mr Blown & party landed on the West of the Bay for two hours &: collected a few things. — this day watering was compleated Tents Struck Sc evei7 thing made ready for Sea. Thunder 8c Showers of rain, no Natives came near us — during our Stay here we had been so much disturbed with the Natives that we could not examine the Country as we could have wished, as far as we saw the Soil was Sandy, but the face of the Country finelv diversified with gentle elevations &: large plains, some Granite rock but scarce, some Iron Stone 8c a sort of red Grit Stone, at this Season water was plenty but it is probably not so all the Year 10 Weighed early & Stood out of the Bay with a fine lair wind, at 11AM Captain wih Mr Brown 8c Bawer landetl on a small Island, returned about one P M when we Stood North with .i fine Southerly Breeze 8c anchored in the evening I I Weighed early & siocid North North East &: soon past a point of land where the Coast trended to Westward, light wintis made little progress 8c Anchored in evening The Cape just past being Cape Arnhcim we were now out oi the Gulf in which we had been since the 2 November during which MAIN JOURNAL 117 February 1 1 time the wind was never settled in any direction, but the Northerly winds greatly prevailed, sometiines East &: sometimes West but rai ely South The Climate hot but not excessive, the winds were always Cool Sc in general a fine & reheshing bieeze. the weather generally clear & serene, but laterly as the Sun approached us more cloudy with Showers The appearance of the Country is one Continued flat, with no rising ground of any consequence till near Cape Arnheim & e\en there the rise is very inconsiderable. It is every where covered with woods & the appearance of fertility. & although we saw no very fertile Soil except in small inconsiderable spots, yet it is probable there is much fertile Soil more in the interior, for except Arnheim Bay we never landed on the Main during our stay in the Gulf but 4 days in different places. & was never above half a mile from the Shore & what Soil we then saw was Sandy. Some of the Islands we had a better o[)portunity of examining & very stony the stone free stone & some places Iron Stone, at the entrance of the Gulf on both Shores, viz. on Cape Arnheim & prince of Wales Islands the Stone is Granite The variety of Vegetables is considerable but there is much sameness. evei~y time we landed we could count from 100 at the least to 200 different Species at the Greatest in any one place 12 Weighed early, light winds made little progress. In afternoon sailed through a passage between an Island & the Main while a Native stood on the Beach of the Island waving his hand & calling to us. Anchored in evening dull hazey weather & some rain 13 Weighed in morning & soon opened a deep Bay Stood for it and about 3PM anchored in a very large & well Sheltered haibour the extream of which to Eastward we could not See. In evening went ashore on the North Side of Bay &: Collected a few things — Boats fishing & caught plenty for all hands 14 In morning landed with Mr Brown & party & collected some plants Captain employed Surveying the harbour, he as also Mr Bawer & Westall who were with him found some Quartz Crystals they were found in Caverns in Ironstone &: Granite. 15 Employed preserving former collections Boats Fishing with success In evening landed with Mr Brown on North Shore &: collected a few ttiings found fresh water near the Beach in a hole dug in the Sand by natives. Saw 4 native Dogs wild which made a singular howling noise 1 6 Early Captain with Messers Brown & Bawer went to Survey the Eastern pai t of the Harbour, on their return Weighed & stood out of the harbour &: Anchored in evening 118 JOURNAL OF PETER GOOD Februan 1 7 Weighed early & stood Northward & passed a broken & indented Shore about noon past between some rocky Islands & stood ior a steep point behind which was an opening, on making the point we perceived the land to the Right to be Islands &.- and a passage beuveen & the main we soon obser\ed some vessels laving under the lee of the Islands & some Canoes paddling about them when we came within a lew Cables length of them a Boat was sent on Board well armed & soon returned with Information that thev were 6 Proas"" being part of a fleet of 60 from Maccassar'"" sent by the King of that Island to collect Trepang a kind of Marine production of a gelatinous substance & somewhat of the Shape of a Cucumber, which when dried is a great delicacy with the Chinese & brings a great price — Anchored for the night & had a visit from the Captains of the Malay Proas, who informed us that they had practised coming to this CountiT for that commodity for these 20 years & the Commodore of this Squadron Said this was his 7 vovage to the Gulf 18 In morning Captain went on board the Chiefs Proa & 5 more Proas came in from the westward & Anchored & begun to take on Board water Before noon landed with Mr Brown & party 8c ranged the neibourhood k collected some plants, This Island is very hilly & full of Stones, which are grit stone & in Some places a kind of Slate stone — at this Season plenty of water run down to the Shore in various little rivulets or rills in great plenty — The Canoes of the Maccassars caine along Side & ex( hanged Cocoa nuts poultn &:' for hardwarti Cloaihing &' and weie veiT friendly &: honest in all their Transactions, from them was collected some useful information relative to the Winds Sc weather in this part of the Globe, they informed us that we inight expect rough weather with wind from the North West for two or three weeks when it would change & South East winds prevail — Informed us they would Sail in the night 19 In morning the fleet of 1 1 Proas were in Sight Standing to Eastward Captain went in Boat to Sur\ey the Islands &:' I landed with a party who went to bring off soine w'ater & collected a few things 20 landed with Mr Brown &: party on an Island to Eastward of wheie had been the (\\a former days here we collected a lew things Sc brought on Board some plants for the Gaiilcn — Since our arrival here we had irecjuent Gusts of wind atxompanied with heavy rain. It gave us great satisfaction meeting with the Maccassars as it satisfied all our doubts relative to appeatances we had seen in the Gulf, the fire places are to dry the Trepang in MAIN JOURNAL 119 February 20 tlic Snioak &• thev have no other vessels to earn' their water but Bamboos the damaged ones of which we had frequently met with — we learned that they usually make the Voyage in 6 months from Maccassar, that they meet rhinese Vessels at Timor laut' " which purchase their Cargo for about 40 Dollars a bag of 1000 insects Sc' we had a Malay on Board who acted as interpreter 2 1 Employed preserving former collections Captain with Messrs Bawer & Westall went to the North East to take bearings &' they fell in with a party of Natives who did not See our people till very near when they fled in great confusion & left an elegant Spear which was brought on Board &: a hatchet left in its place, the party consisted of an old irian two women & some children — frequent Squalls & heavy rain 22 Went with Captain & Mr Westall to an Island at some distance in North West & collected a few things 23 at day light went ashore & planted 4 Cocoanuts & some Potatoes in various situations such as appeared most favourable, one of the Cocoa nuts I have procured at Murrays Island at that time in a state of Vegetation & it had been growing in the Garden ever since & was now a fine plant, one of the others was also beginning to Vegetate & two had no appearance of Vegetation — In the afternoon weighed & stood West and anchored in evening near Some Islands in Sight of those we had left 24 landed with Mr Brown & party on the largest Island Z Sc collected a few things — Captain & Mr. Westall went in morning to Westward between the large Island & main 8c proposed returning to dinner — but did not return all day 25 As the Captain had not returned Mr Fowler went with the launch to look for him. I landed early & brought some things on board before 7AM about i past One P M the Captains boat was seen to windward of the Island &: soon came on Board — They found the Island much larger than was expected & had required all this time to go round it, The launch came along side soon after 26 landed in morning on the Small Island near Anchorage with Mr Brown & Bawer & collected a few things 27 Weighed Early & stood westward & soon got aground on a Sand Bank with a vei7 rapid Tide — some of the Bank at a little distance from us had only 6 feet water — about noon we got clear and anchored in deep water 28 Weighed Early & Stood South West in a fine channel between the Island & the main — at noon anchored opposite a Small opening between an Island Ik the main behind the island no land could be Seen boat Sounded & a breeze springing up weighed & stood 120 JOURNAL OF PETER GOOD Ffbmarv 28 round the Island when we found a very rapid current running out of the opening which is broad Sc deep close to the Shore, about 8 PM having got round the Island Anchord March 1 Eaily went ashoie on the Island with Mr Brown &: Party also Captain Sc party, here we collected a tew things &: as the Island is tolerable high had a fine View ot the Bay which is large so much so that we could see no land to South West & only in small spots to South & South East — returned about 1 1 A M weighed &: Stood Eastward up the Bay anchored in evening 2 Weighed in morning &: stood on near the Eastern extieme ol the Bay & anchored about 3 P M & soon went on Shore with Mr Flinders & collected a few things, about 4 Captain with Mr. Bawer set out to Survey the Bay Sc took provisions for three days 3 Went ashore in morning with Mr Fowler Sc a party — &: collected several new plants — Saw manv Kangaroos — this part has much resemblance to the diileienl places we had visited ot the main in the Cult, but I think moie tertile — many Swampy flats ot Consideiable extent at this Season Standing some inches deep ol water which if cleared bids fair to be productive in rice, came on Board before 3PM weighed &: stood tor the West ol Bay Anchoied in evening 4 Weighed Early Sc stood lor a Sandv Beach i ound i ed ( ?) clitt & anchored in afternoon &: soon went ashoie & collected scjme new plants. Boat went to fish but had no success, before 9PM Captain returned having Seen no appearance of any river had caught a Turtle — In this excursion Mr Bawer had found few New plants 5 Early the Boat went to haul the Seine but had no success about 9AM weighed & stood out of the Bay — wind Sc tide being contrary about 5PM anchored & saw a Canoe with two natives close in Shore 6 Weighed early & stood Northward with a fresh Breeze about 1 P M having cleared the land &: Islands stood North West and at 7 P M. West North West in whi< h course we continued during the 7 In morning no Lmd in sighi X: nothing ni.uciial onmicd till 1 2 we made some low Islaiuls i .tiled New Years Islands Sc the Ship hove too while a boat landed on one whit h Mi Fowler &- 1 walked round, saw the shells ol some Turtle whic h Ii.kI been lately killed The whole Island is composed ol Coral &; sand & shells and some lakes ot Salt water with mangro\es. with scarce anv thing MAIN JOURNAL 121 Manh 12 new in the Botanical department — nothing of consequence occulted hot sultry weather Calms & light airs till the 19 About 8 A.M. we were surprised to see the bottom as we had for several days had from 100 to 120 fathoms Soundings on Sounding we found 10 fathoms sent the Boat ahead &: stood on & in less than an hour we had 60 fathoms — the least water we had was 7 fathoms hot sultry weather with light airs and Calms 29 till 29 saw the Island of Timor very high land and on the 3 1 Anchored in Coopang"' roads near the Fort of Concordia here we learned some of the transactions in Europe since our leaving it, we found here a Dutch Brig and a sinall American Ship just come from Europe — we remained here till the 8 April during which time we made a considerable collection of specimens by repeated Short walks near the Town but we made no distant excursions — This Island is peculiarly fertile in comparison to anything we had seen during this Voyage — as far as we saw it is entirely coral rock, or at least in the greatest part for in the River & some parts of its banks there is some primitive Rock but it is in small proportion to the Calcareous — but the soil consists of a very rich vegetable Soil of a yellowish or light brown Colour & of a glutinous consistanie which laid on the very porous Calcareous rock gives the greatest luxurience to the vegetation particularly as it appears to f)e freciuently lefreshed by plentifull showers of rain all the Ships Company were refreshed with fresh provisions & fruit here and the Svmptoms of Scui vey which appeared generall were soon dissipated — two men contrived to leave the Boats and secret themselves on Shore the last night of our stay here & could not be found when we sailed April 8 Weighed Early 8c stood Northward light airs kept Standing to the westward & Southward on the 1 2 in sight of the little Island of Java from this till the 20 fresh breezes & much rain with 20 with much Thunder & lightning 8c very dull moist atmosphere many of the Crew Complaining of disorders & dysenteric attacked several which seemed to increase — from 20 to 23 fresti steady Breeze from South East cool air 23 from the 23 to 27 in search of the Trial rocks'^^ which we had not the good fortune to fall in with 27 on the 27 stood to Southward as wind would pennit and on the May 2 crossed the Tropic of Capricorn — wind & weather variable 14 and nothing material occurred till 14 at Day light the South West Cape bore North stood Eastward South East with a fine breeze in sight of land 122 JOURNAL OF PETER GOOD May 15 Past King George III"' Sound Mount Gardener '^''&' steering East 1 () Standing East by North fresh breezes & hazy cloudy weather no land seen this day 1 7 At day break past Termination Island & about SAM past Bay No I keeping to the South of all the Islands — past noon departed this life Charles Douglas Boatswain of a Dysentery with which he had laboured since the middle of Aprile — Self and several of the Crew labouring under the Same disorder In the evening Anchored to Leward of Salt Island or Bay II near where we Anchored in the middle ofJanuaiT 1802 chronology The dates given for a particular locality have been compiled from Flinders Voyage (1814), Good's seed lists and Brown's herbarium labels. Unfortunately these three sources sometimes differ. 1801 July 18 August 2 October 16 Departure from Spithead Madeira Cape of Good Hope Western A ustralia December 6 An ived off Cape Leewin December 8 King George the third Sound December 12 Princess Royal Harbour 1802 January 4 Januan' 8 January 10 January 1.5 January 16 Seal Island Archipelago of Recherche Lucky Bay, Bay 1 Middle Island, Goose Island Bay II January 28 Bay III South A ustralia Februan,' 2 Nuyts Archipelago Februaiy 8 Petrel Bay Februan- 13 Flinders Island, Waldergrave Island, Bay IV February 2 1 Thistle Island February 23 Memory Cove, Bay IX February 24 Bay X February 26 Port Lincoln March 8 Spencers Gulf, Bay XII March 22 Kangaroo Island March 29 St. Vincent Gulf April 1 Nepean Bay April 8 Encounter Bay 124 lOURNAL OF PETER GOOD Victoria April 22 April 23 April 26 Bass Strait King's Island Port Philip, Bay XVI New South Wales May 9 Port Jackson July 21 Left Port Jackson Queenslatid July 30 August 1 August 2 August 5 August 6 August 9 August 20 August 2 1 August 28 September 5 September 12 September 29 October 6 October 16 October 2 1 October 29 November 2 November 3 November 1 7 Sandy Cape Hei"vey's Bay Bustard Bay Port I Port Curtis Keppel Bay Harvey's Isles Port Bowcn, Port II Shoal Water Bay, CapeTownshend Island Thirsty Sound Broad Sound Northumberland Islands Gieat Bai rier Reef Cumberland Isles Break-sea Spit Murrav's Islands Prince of Wales Islands, Good Island Endeavour Strait ' Welleslevs Islands (Islands a, b, c.) Northern Territory Dccembci 4 Tiirlle Island Dccemfjer 8 Moriiington Island (Island d) Dcrcinbcr 16 Pellcu's Isl.nids, Vandcrlin's Isl.md (Island g) DcK inbci- 25 Noilh Island, i Island 111 CHRONOLOGY 125 1803 Januars' ' Maria Island (Island 1) January 4 Carpentaria mainland January 15 Groote Eylandt JanuaiT 16 Wincht-lsea Island (Island p) January l.S Bustard Island (Island q) January 1"^) Burney Island (Island r) &: Morgan Island (Island s) Januai y 2b Carpentaria mainland February 2 Caledon Bay February 1 1 Cape Arnhem Februai7 12 Melville Isles February 13 N. Arnhem Bay Februai7 17 English Coinjiany Islands March 1 North Coast Bay No. 3 March 5 Arnhem Bay Match 17 New Year's Isle Timor March 3 1 A|iril S Coepany Lelt Coepany Western A ustralia May 15 Aic hipelago ol Recherche Mav 17 Middle Island Jiuie9 Port Jackson Notes * where no description is given and the common name applies to several genera identification is naturally impossible. 1 Cap de la Hague, opposite St. Albans Head, Dorset. 2 Promontory on the south coast of Dorset. 3 Square-rigged vessel with rwo masts. 4 'Ferdinand L. Bauer's sketch not traced (Brown's Diary). 5 Robert Brown (1773-18.58) natuialist. 6 Ferdinand Lucas Bauer ( 1 776-1826), natural history painter. 7 Rear Admiial Robert Merrick Fowler (-d. 1860), entered the Navy in 1793 promoted Lieutenant on joining H.M.S. Inveitigalor (O. Byrne, 1849). 8 William Westall ( 1 776-1850), landscape and figure painter. 9 Hugh Bell, surgeon, obtained a warrant in 1800 (Steel, 1790). 10 John Allen, miner, fiom the Ashover district of Derbyshire, who was member of a family known to Sir Joseph Banks. 1 1 Pico Riuvo, volcanic mountain of 6056 feet, Madeira. 12 ''Identification impossible. 13 Remoraremora(L. nSS). 14 Fogo, one of the Cape Verde Islands. 15 Probably the common swallow Hiriindo rmttca L. 1758 on migration. 16 The common names porpoise and dolphin were interchangeable at this time so identification impossible. 17 Sailor's name lor the Frigate bird, Fregata sp. 18 Flying fish — lamily Exocaetidae. 19 This may refer to the albacore or long-finned tunnv [Thunnm alalunga (Bonnaterre, 1788). 20 ?, The oceanic hon'no Katsuwonm pelamii(h. 1758). 21 Maalstrom Island charted as 16° OON 37° OOW in the early 19th centui^. Findlay, 1861, gives the Dutch cartographer Van Keulen as the source and describes it as not found in 1799. 22 Sula sp. 23 Samuel Ward Flinders, 2nd Lieutenant, vounger brother of Matthew Flinders (-1834 or 5). 24 The common name dolphin usuallv denotes a cetacean but was sometimes used for the dolphin fish Coryphaena hippiim (L. 1758), species given in Brown's diar^. 25 A relerence to P. de Auverne's topographical plan oi Isle of Tnnidada, 1787, though this chart is not mentioned in Some early printed maps of Trinidad and Tobago (Map Collectors Circle No. 10, 1964). 26 Flinder's {Voyage, 18 14) considered this to be the Nine Pin of Au\erne's chart. 27 Diomedia sp. 128 JOURNAL OF PETER GOOD 28 Pintardo birds, here refer to the petrels commonly known as Cape Pigeons Dapitwn capensis L. 1 758 formerly Procellaria capensis. 29 Procellaria aequinoctialu L. 1758, a large dark sheai"vvater commonly known as the Cape hen. 30 Saxenburg island, a nivtliical island reported bv John Lidcstz, a Dulchnian in 1670 as 30°45'S 20°00\V. Fluiders (Vogage, 1814) states the position 30°18'S 28°20W. 31 'Identification impossible. 32 Alopias sp, a shark with a long tail. 33 Paulsberg, one of the major mountain peaks in Cape Point nature reser\e. Cape Town, South Africa (Rourke in letl.) 34 ? The homestead of Viterstehoek in Cape Town, marked as Smith's farm cm modern maps IRourke in lett.). 35 Variant spelling for buck, male deer. 36 Fish Hoek Bay. 37 Cape Cobra, jVa/a TO wa (L., 1755) (Rourke, 1974). 38 The road from Simons Town to a place called the Company's garden, led close past the obsenatory (Flinder's Voyage) 'Since the observatory which Flinders mentions had been set up on the South side of Simons Bay, we may deduce that the Company's garden was situated somewhere between the present day Simonstowii and Froggy pond' (Rourke, 1974). Good's remark that the garden was 'usefull but not ornamental' would suggest that it was used for the cultivation of vegetables to supply the needs of shipping during the winter months. 39 Loos only occupied Tokai for a short period. The house was built for A. G. H. Teubes, 1795-96 (Rourkem lett.). 40 ? A reference to the farms Groot Constantia and Silverplace, the latter is, today, either Silverhurst or Witterboom (Rourke in lett). 41 Protea reperu (L.) (Rourke, 1974). 42 Leucodendron argenteum (L.^ R. Br. (Rourke, 1974). 43 Devil's Peak. 44 Van Riebeck ( 1618-7 7) established a fort at the Cape in 1652, leased a stretch of forest to Leendert Cornelissen, in 1657, of a garden developed there and known as Leendertsbos Guy Tachard (1650-17 12) WTote in 1685, 'we were greatly surprised to find one of the most beautiful and curious gardens which 1 have ever seen in a country which appears to be most barren and miserable in the world.' This garden eventually renamed Kirstenbosch is today the National Botanic Garden of South Africa. 45 £nca -ip.v/ana Ait. (Rourke, 1974). 46 Erica oblitjuaThunh. (Rourke, 1974). 47 Pndocarpm latijolius IThunb.l R. Br. ex Mirb. (Rourke, 1974). 48 D(Oj/)>'rw !i'/i>-i 1 V ■- Y "; ^ V *■ 4Tlf?^^ ,^V ^^"Hi 5 \^^/, \ll ^ ^■X^ .kit III .^ l.^^5>l^^^^ 4 «\s H 5X n ^ ^ 11 136 lOt'RNAl. OF PETER GOOD ^1:^l!^^'■^^' . A\n^ J^ I ^**>^ til HAL i^^l4V1 5q<^ ^^"s sfffi,^ ^\ ^4 ; ;q "* ,1^^ VARIANT JOURNAL vll M .^ "a vN-^V^, X s 4^* S- r^ I.11-^i/\i J -ix i .» ^. N* I K)^ivYl]f i|[i^Jl^i1^«^RU«14l«Ai 138 JOURNAL OF PETER GOOD Pf I ^^1 V Sell u^^i^\43 I3\i > n ^^ ^^ ^^^ '-ii .»* ^ 1 H^^r^- £^ 11 Ni ^■^ V>)^^ ''^^'' ^n VARIANT JOIIRNAL 139 .1' i^ .V nfC' jsj I ;x^ J^ih Ktiti^.>^^fillil;^:i4i|l' ^ ^ 5^ I ^, I 1 5 mm Extant Lists of Seeds British Museum (Natural History), Botany Library 142 JOIRNAL OF PETER GOOD (a) 'List o( seeds collected in the vicinity of George III Sound from December 10 to January- 4 1801-2", 8 folios". There is also an incomplete version of 6 folios* and a further version of 6 folios. In these lists details are given of habit and habitat of some species and if the flower was described, the latter being a reference to the descriptions made by Brown. [See pp. 144-158] (b) 'List of seeds collected on the South West Coast of New Holland. King George III Sound December 10 1801 Januan' 4 1802: Seeds collected in the neihbourhood of Bay 1 JanuaiT 10-13 inclusive 1802, Bay III, Bay IV Anchorage V, Anchorage VII, Anchorage VIII, Meniors' Cove, Bay X, Anchorage XI, Inlet, Kangaroo Island, Kings Island, Port Philip, Seeds Collected in the neihbourhood of Port Jackson from 10 May 1802 to 20 July 1802', 1 1 folios*. These are merely alphabetical lists of species collected at the various anchorages. [Sec pp. 159-1691 (c) 'Seeds collected from 10 to 13 January,- 1802', 4 folios'". 'Seeds collected in the neihbourhood of Port Jackson from 10 Mav 1802 to July 1802", 7 folios.* 'Seeds collected in neihbourhood of Port Jackson from 10 May to 12 July 1802', 1 folio*. These lists give details of habit and habitat. [See pp. 170-1811 (d) 'List of seeds collected on the East Coast of New Holland Sandv Cape. Julv 30-31- 1802, Port I from 5th to 8th August 1802, Keppel Bav from 9 to 15 August 1802, Port II 21-22 August 1802, Passage III Shoalwater Bav 26 August 1802, CapeTownshend Island 28 August 1802. Shoal BavS.W. Side 30 August and 3 & 4 September 1802, Thirsty Sound 5-6 Septeinber 1802 Broad Sound 12-26 September 1802, Northumberland Islands from September 29 to October 3-1802, Cumberland Islands 16 Oct. 1802, Prince of Wales Island Nov. 2 1802, Carpentaria Islands a b c Nov. 17-28- 1802, Turtle Island Dec. 4 1802, Carpentaria Island g h and i 16 to 25 December 1802, Carpentaria Island 1 1 Januaiy 1803, Carpentaria on the main January 4 1803, Carpentaria Groots Eyland 15-10 January 1803, Gulf of Carpentaria Islands r and s January 19-21 1803, Gulf of Carpentaria on the main Januan- 26-28 1803, Gulf of Carpentaria Arnheim S. Bav Februars- 4-9- 1803, North Coast of New Holland Arnheim N Bay February'' 3-18 1803, North Coast Islands y to fee Februan 4-9- 1803, North Coast of New Holland Arnheim N. Bav Februarv 3-18 1803, North Coast Islands y to &c. Febiuan 18-27 1803", 1 folio*, 'N. 1803, N. Coast No 3 Bay March 1-4 1803, North Coast New Teais Day Island March 12 1803', 17 folios. These lists give details of habii and habitat. Theie is also an incomplete version of 9 folios. [Sec p. 1821 (e) 'List of seeds collected on the East and North Coasts of New Holland lioiii the 30th July 1802 to the 4 March 1803', 9 folios*. An alphabetical list giving the locality where the species was collected and conckuled wiih a list of the dates at the different anchorages. Many of the species aic picfixed by a + which indicated where they were included in that particular (onsignment; those species without a + were duplicates which were to be forwai (led by the first opportiinity. There are also three extra versions of this list, 8 folios; 13 folios and 9 folios. [.See pp. 183-1921 'Seeds collected on the Island of Timor from 1-8 April 1803', 2 folios*. 'List ol seed sown in vicinity of spring and various other situations of llie island on the 2-4 & 5 April 1802'*. [See pp. 193-1951 Note: Those marked with an asterisk are here reprodi Facsimile of Seed Lists 144 JOURNAL OF PETER GOOD ^>c ^fi^d^/iy f-^ .'tfrlhi, i**i L Y,^/J: /J y^.f ^ ■^ fi ^^l <- ^t^ J 474- 4 -ie-»->^--^ JJT C^ ^^-^ V- tlf^c -^^^ K^yT^ ^ jf-c^^ /t-^>;wi>U. j a/- i^< nl^f^ ^^^ i^A-fct^X-<^ ly*' /<;i 4.^, -.32'^ / /^ '.'O^J .'/<^ - J^ ^/A-^^^Y ^*''*«'*^ ^'C/y SEED LIST '*tiin|^l^j^^||o> n > iH<^ vi^j ;\v^^ ''^^i M>! * I =;, ^^^-^ •i i t V t I J ^-i ^ 146 jOI RN AI OF PFTFR GOOD .^-1 ill -^;'br' .1^ L' >>4Hv^^. I\<>n^« ^IXv!' ^ "-ivv" • '.i ^ lift Pi i|#iill# i|tl •^N t>i ^"V vW\ ^ ^5s SEED LIST 147 ^tM:^l4 ^i^^ K^ 6 !1 .^l'^:^hkHv« V %> ^ NT -'^ ^ t\ 148 JOURNAL OF PETER GOOD SEED LIST 149 ^ . > . — — w \ ■ -'" m vx^^ .^ *s Jl 150 [OIRNAL OF PETER GOOD M .^ :^ *^.^\li) ;^ V. •eliH r M ^^ ^^11 life *f^ ^Jill K ~^.^' ^ ■N V SEED IJST 151 tx^^^^v^ 1 v^ ill 1 Vx^M^V ^t. ^W^\^ii11^^1 152 JOURNAL OF PETER GOOD '^ >y^&^^i^c •')c^ ^,^f-C^ "^-^^ /.^^o-T*^ ar^ ;^ 2 a- (^yuii> ^ ^n^ c>-^^^i^ ^ ' ^'*^'^-'y Z. 3 Cy^i'T^-'**'^ /}-uy u at^'f ly A.'ty '-t.^ y*i^o-T^' ?u i v /^^c^ ^Ar^in. of *^y-^ c^j^ j^^*^**-.-^ : 2.^ o^c^ii^' oy^^o^'*-*^ i^^^yy y^A^,^if-^-L^ ey'"\ y^^ ^At^s^ yy^'U'^ **^ <.<>-iywf y IcP fi^ i^j^Jv Vj^/K >ny^*^ ^yuya^f:i^_ .1.1 SEED LIST 153 ^ .2 "^ i ^ "^^■A la ^^*<1v^"^^ fPiiKi'^^ -X 1 ^ V "■l 154 JOl RNAL Ot PETER GOOD I i<:i.f if «\^x;;$^ ^ IL Un ^ it ■< 1* •^ ■^^1^ <§ ^.1 'SJN VJ V^ xVi ■>4 im^'ii -^ -M .!"^ \i:iH ^ s; Vi ^. n jt^rvl^^t^ |llilllv> SFM) I 1ST 155 .<* ^jv 1,56 JOIRNAI. OF PFTFR (,()()[) ^ ^ •^ ^11^^31 i^i.-ia. 5|jK%'' c4 ^^ ^^ ,v•^ X -t rv ■^;ii^^$ ^.:iv ;t i'i^uum'm ii V ^> ^^ ;^ Si ^l ^\4 ^^ ' -:^-|^^l X ■^ mm SEED LIST 157 ■^ f ^ v^ V^i y ^ !C ^ ^ I- v«:k« ^ ^ ^ - \x 158 |Ot RNAL C)K I'FTFR V.non ■I H: "^ ^ - X 4i -J 1 4 s V s A i ^4 c <^ ^ ^"^ ;^ \^ r> ^ SEED LIST 159 V. .^ ' V > ."^I■ r N I V > J:> \5 ^, 1 5 "^ V Kl ^e^ ■^ - ^ ^ ^ S V Q •>. >: x V- «" Y r V ^ v5- I X SFEI) LIST 161 c^ O^^-^X.^ S^ J Nt: \ 4 ^ 4 I ^ ^ i ^ i 4 -J r^ ^x^^ l:li^. M, ■) 5^ N\^ i ^ \ rs ^ rs ^ S;v ■ VS s^"^>';'?^v5t.'^' 162 lOlRNAl m PUFR (,<)()n \ -.1 ^ \ r^:i.lvl \4 4 X 'i >\. I \' ^l-l ■^ il4i1 1 1-1 ^i t 4. i.'\ •^^ ^S ^ ^ K I V Vi'-v^ SKID LIST "1 ^ ^i ■^ 5-^-4. -.■:? 1 r^imiir^ii-- ^4x|s|^34^^- ^ <" : ^fHirTibfl ii^n^^^v *> ^ ^s -N^ -5^ ■^ >?- ^ 4 x:, '^^■-s! 5 1 ^ ^ ^ 111 a! s I 1 I \ \ \ <^> I X-- ^-^ ^^- 1 ^U' I i I X .^ 4 ^ ^ ^ ^4 <^M SEED I.I.ST 165 fv I V: 4 ^ i i 1 ■i i JN ^x'^ t \ s>. X 'D It- 166 |OI RNAI. Of PFTKR COOl) SEED LIST 167 i< f;N| i\,' ^ ^ >j ini ^^^5t :i ^l|^^ 11 \-:< .^M 1()S |()l K\ \l Ol I'KTFR (;()()U .>^ ^1 > Ov ^ 14 ^,>^ 1 .^ .. > , '> v5' > -^ ^ ^ I ^^.^"'1 f V ^ ^ ? .I)|^v44»v^4^'>h:,^ \^ r1 .^-4 ^ \^ 170 jOLRNAl. UK PETER C.UOD T \> fi^i^ if? T . ^^ %^^ Vh I i^ii^ V ^< -J r V r^i^x ;^ ^A\^ ^ K. I 1^ ,Hi.vi)i:^i Ulll H SEKD LIST 171 V-^ ^'^ 172 |Ol RWI (U PUKR (;()()D t U' N^ if \^ N K t1 ^^ ^^ ^ V ^ ^ -nT U [ s tr^^v^^^ id- ^N ^ll^^ > lit ^^ I Ji^ ^ ^ v>- ^ > ^ SEHD LIST 173 •vf^ vj^ «».^ "T^ •v^ "^ ■yliliS '^ 174 JOURNAL OF PETER GOOD ^ /% 1 ^ ^-^^ f.c^ ^..^i^/ ^ y^ZU / J//' r''fyTU» ,yzu^ ■*' •<>-? w-y i^ix* <^ r. i<' <.?-r / <3- ^J:r>-rf*< > J- ^ i,i ,tM ^ .V I. ^i^«iN^.S\^ ^^ f .^ ^ ^ ^n""^ ^ '^ i Q ("-^K ^ ^ * I ^ > > •^ ^N ^ 178 lOIRNM OK I'FII R (,0()I) n ^ '^ V^ c^ ^^ '^Hi «\ -V ^ , 1 J > s 5 L > ^ s . .. * ■ ■- i R tut »^ I- ^ ^ ^ ^ ^ < SFKD LIST 179 K. J -,-^.1 \-^ .^^v.^ * ^ * vi v^ ■* .V \ ;i X *\» «^ ^ ft .fs- MP 11 a .1 N Be ^ ■^ 5> ^^ [v Si*. ISO |Ol RNAI Ol PKTIR GOOD i tii^ ■. s^-Vll 5' '^*Jlv ^"^J Cx^'S ft SFFD LIST 181 > ■^^ ' ^ ^ ^ I-Jk s:J- -^ A. ^ 1 >^ . ^^I^"u Mi^- -X\ '^^ 1i| |i|« |i 4-4-4 j- 4^^|^I5, 182 lOl'RNAI OF Pl-TFR (IdOn ■)» ' •• SEED LIST 183 -^ J^- ra. z/ne ■ ^ Jt^^ ^^x- c^^i.cv^^rf i^^^^*y^^: y^'raA<^Xj^ t J^^rr^e^ ^WP^-^^^ /^e^M'/^^^y 184 lOl'RNAI OF PFTER GOOB ^'>jM4^ It la iN^ ^ J ■^ .t ^ II I ^ i>t?). lM'.i1^ I 3 ^ .IS \ ^ ^ I ■'^-i :i|->^^f> f^ Ah '^4 ^ -I ^^■ ^ SI' in LIST 185 "^ ivl ^> Vs '^1 I ^<^ :^ V > t :j~ ■f r~^ ^ ^ l! ' I ^ -^ c Id M I I i I: -y 1- 1- -^ 1- 11 186 JOIRNAL t)K PKTKR GOOD T ^^' r .'^ \' > t .^ ^ ^^^^-^l,a^ n^ ^-4^^ *ii Y^! ^i.5 j! ^ « « "^ ^i *>^ 4^ r Sit ^" ^la;^^^^^^^^'^ V Iff' 1=. ^^^i «^ ^ Sv lllil^ ^ JS + 1- 187 i" ^^- ^^ -4 ^ ^ N \ v^ -A ^ vVi tv ,i M i ^ 4 > t^J '& * • ^ .n ^"^ •^^xS ^^i^^^^ ^^^.>4^ i^ ^^ fU3 - 5\i^ •* i>^^ ^*^ ?^^ I 1'^ ^i 44 4^ V- V + 1- jdlRNAl. or PFTF.R (jOCII) ,\ I? Nil ^ - ^ «i U^::^ ^ V ^ ^ ^ ^< ^f s 1^ r^^>^^ ^'SU M »i^" 1 ni 1 f \ 5^ A ^ s^ «*!-«< .1 ^ V. 1 , \ fi \ 5k ■vi SKEI) LIST ^ 1 1- Sjll^y« 1 \ '"* "<:^ r \i ^ Hiiii^fi^^r^^i^ei«iyj V 5i 190 lOlRNAL 1)1- PETER GOOD T 11 ~.i \ k^^ HX^«1'\s^'^K^^^s^ " V » V .V N <> ,4 ! 1 f^ 1 0 ^ 1 s ^ .^1 ^ i\ ^ ^ ^^s > N, 1 # ^^^.^' H^i '^^^l ;|! ^.4 ^^ ^'^^ ' ^ ^ - ^ V ^ ^ V >, ' V ^ ^ V ^ r| \ >^ ^ I'i ^ X -so c-N, N V t - s. SKKD LIST 191 T A ^\^^^ V i^'; ^ VA^$ ^ N^^ ^ Q ^ K\ n. Q ^ ^' [ -V -V -N 1 i ■V If + -K ^ ^ > ■4 192 JOllRNAI OK PFTKR (,()()1) yy/^-7/2 J^ . 2"^ - 2 / //■^ ^ '^- a^/^ ^/rO*^ ~%J> SFFO r.lST 193 r /6 /^^/^J^^l /./ ^un^y ./, /^ra/,,.■ i- ■ ■ ' 192 JOIRNAI. at PFTFR COOl) c/-/^-,,'7' j'~ Z^ - 2 / e/^*»"/' y^/'/y^-^ /y^/»il>7->^ J-^jJ^ . '' / ^ J^- ^ /^ ^/^^l*^ ~%fi — SFFI) LIST 193 i^S*7c (P *:>^^ A- 'J~/hrat'*^ <^U^i^i. J^,^ -*^>^ - /S i^^e^-^ A ^ <^ c^ . ,) ^ -> S "^ r ^'^ > ;^ ^ ^ ^ i^ ~^ '^ -^ A I r N V) ■«S^ r^ c) c) <^ T^^ '- SEKD LIST 195 Facsimile of Records of the Receipt of Seed at Royal Gardens, Kew 198 JOIRNAL OF PETER GOOD Roy.il Botanic Gardens, Kew. Archives Inwards book, 1805-09, fl. LM-()7. Folios 21, 22. 29, 31, 51, 52, 65 & 66 are reproduced in facsimile. RECORDS AT ROYAL GARDENS. KEW \99 V ,/ .■ ji -^ .'■',„, : .}„ ..- v/. /' /.-y/j:^^^ i^ ' Jy '.C^^A.: ,..'. '^y^ .;"-^* .,; 200 JOURNAL OF PETER GOOD i.:y. J ^4 /I y.' /^> ^.'-^-.*^> ffit/- ■ -', • ^ I ' / • J'-(;f>A't .- ^//*<-», Ayi ^-y-'/i^M *"'/. .'f i^ 'f - — — ... ^^. -:. ■^Z-***„ ^:A7i,*»v«i*..,5%> "^-jJr". .~ rj /i^i^^uiy- .-^/^/^ /i^f/Y, VtAi'^fc.^w r/-^ /i?^. --;^. ^ - • ■■.- >v^-^ . ,.r- ■ • :'t.»j' ^ RECORDS AT ROYAL GARDf NS, KFW 201 «i. ^f^')'«**' ^■^•c^"-'^-' • -/Zi?^. Jf/e^,^- ^''-y/l.*,^ ■^retJ^ A-.'^i^^ ^/^,,, I #'^ tf ( V'/^ . 204 FOl'RNAI OF PETFR c;OOD r / / / .1 A. . '^ .' /, . ^/l ^ ■ ■ ■ ■ — y/<' ''/'^/f >/ /y^ ' y.. (/ ry'l // r V /J /> r^y/'^ ^^ f f ■* f t f J ' y' /^ A \ /- . . y , y y\ /L- y^ /y ^ -^ ^ i yt y y J r], y ///'/.J ^,>,..//''^. .^^TT^^U ,^.'^.,.,-y / / RECORDS AT ROYAL GARDENS, KEW 205 ■:'^^^.c>^ J , y. / . f . .1 ., / r< /, ^>;v:;... yfr <'^?^ <*;*»»* \ •tt^^'.W JOLRNAL OF PETER GOOD &^^^^ /J yjt/ ^ 7/ '^'^ ^.....^>X- ^ '- .y ( i'/t rye f tt yi^r <, -I r .■fjj- O'-'J'/^ /v»....^ J.^^,^-.^ yj> f^/Zt't^'f ^i ^^■'* ^ ^''^-^'f*-*^ 'j^^" /^-ij* -~^ ^' ^"^ '^ ,)>^Kv-.-' /.'//'.. ./ , ,., / /, V / I ^P.^/^y^^ ///'yy/ y., yy /J^/ ^^y yy-y.... / 0'://ry>jy. /.j/:./.... //^yy ■'' y I y f / yy yy yy y / yy . ^, ./',■■'•...,, y ')J I t^ y 2 ' fjZ-^/v^/ .C.:, jy ^^-•■• .> ; r «*>'-.. ^ y < // /^ /'' References and Bibliography Aiton, W. 1810-1813. Hortus kewensts. Second edition by W. T. Aiton. London. 5 vols. Austin, K. A. 1974. Matthew Flinders on the Victorian coast. Melbourne. Bauer, F. L. 1813. Illustratwnes Florcp Novce Hol/andtep, etc. London. Britten, J. & Boiilger, G. S. 193L A biographical index of deceased British and Irish botanists. 2nd ed. revised and completed by A. B. Rendle. London. Brown, R. 1810. Prodromus Fierce Novce Hollandice et Insulce van Diemen. London. . 1814. General remarks geographical and systematical on the Botany of Terra Australis. In Flinders, M. A voyage to Terra Australis. Vol. 2, appendix no. 3. London. Buclsepli Antoine 1 1 Bustard 103 Bustard Bay 83-84 Cabliage palm 80 Calcutta 23 Caledon Bay 125 Caley, George 25 Cams famiharis 129 CapeAgullias 129 Cape At nheim 1 16 Cape Barren Geese 129 Cape Cobra 128 Cape ol Good Hope 4 1 et \e Leschenault de la Toui, J. B. L. C. 1 . 19 Lettsom, J. C. 20 Leucodendron argenleum 128 L'Heiitier de Brutelle, Charles Louis 1 1 Linnean Society ol Loudon 19 Lwislonia australis 130 Lucky Bay 123 Macassais US Macrofms eugenu 1 29 ; ,1/ . /uliruwuis 1 L'9 ; M.giganteus 131 Madeii'a 36, 38 Man or war birds 39 Maslt'i's Cuiiii . loss (lO Mauiitius 1') MeKilIc Isles ll.'5 Memorv Co\e 1 23 Men/ies, Anhibald 11 Middle Island 123, 125 Monitoi h/aids 130 Moon eclijjsed hS Moore, D. T. 20 Morgan, Ben|amiii 1 1.' Mornington Island 1 _' 1 Mount Warning 97 Muizenbeig 44, 128 Murray's Islands lL'4 Mu\a banhsu. M. hdli 131 Mutton bird 129 Myrislica irmpida 131 Najanniea 128 Natural Histoiy Collections 19 Biids studied by C.J. Teninnnck, N. A. ■Vigors and T. Horsfield: Insects by W. Kit by; minerals bv T. Vallence and D. T. Moore; Botain b\ R. Bioun Xatiiralisle. Le 19, 78 Naturalist 's and Traveller '\ companion 20, Plates 6 and 7 Nelson, Da\id, iBanksian < ollei tori 10- II, 73-74 Nepean Ba\ 123 New Holland 1 1 el seq. Anchorage XIV llelseg. East Coast 95 tV set/. South Coast 52 el set/. New Years Island 120 Xinox nuvaseelandiae 1 30 Xoctilaca scmlillaii i 129 Nidlea ajruana 128 ;Vor/o/A (sloop) 12 Noilolk pine 87 Noiili Rocks SO Northumberland Islands 94 Nova Hollandiae Planlarum specimen 1 1 Nuyts Archipelago 123 Nymphaea \lellala 1 3 1 Opposuiii ()0, ()3 I'andioii liiduielii\ 129 212 jOl RNAl. OV I'KTER GOOD Paradiius Londinemn 28 Park. Mungo 11. 14 Parkinson, Sydney 9 Pairainatta SO Pasntiora^^. 130 Peak a Riuvo 36 Pelicanui compuullalus 1 29 Pellew's Islands 124 Pctiel Bay 123 Phapschakoplera: P. elegam 130 Phrcsser 42 Pier Head 90 Pigeon 72 Pintado birds 4 1 Plant cabin 20 Plants, conveyance by sea Plates b and 7 Podocarpui lalijolms 128 porpoise 127 Porpoise UM.S. 19,23,78 Portjackson ISetseq. Port Lincoln 123 Port Philip 75, 124 Port Stevens 8 1 Portland Head 80 Portsmouth to Madeira 35 Prince ofVVales Islands 99 Princes Royal Harbour 47, 123 Procellana capensu 4 1 eqmnoctiale 4 1 Prodromm fiorae \ovae Hollandiae el Imulae van Diemen 20 Prutea repem 1 28 Pu/finui tenuiroitns 129 Python spiloles 1 29 Quails 72 Red insects 45 Reliance. HM.S. 12 Remora remora 127 Resolution, H.M.S. 10 Richmond Hill 79 Riedle. Anselme 19 Rdval Botanic Gardens, Inwards Book 23,31 lascimile lolios 21-2, 29, 31, 51-2, 65-6, 198- Record Book 25 Botany Bav House 30 Rvlev, Surgeon Lancoiter St. Pauls and Amsterdam 45 St Vincents Gull 123 Salisbury, R. A. 28 .Salt Island 122 Sandy Cape 1J4 Saxenburgh land 4 1 Sea (U( umber 131 Seal Island 46 Seed (ollected etc. 20, 23 el seq. Lists lascimile. King George 111 Sound. Dec. 1801-Jan. 1S02. 144-158; South West Coast of New Holland, Dec. 1801-Jan. 1802, 159-168; Pott Jackson, Mav-July, 1802, 169-181; North Coast Islands 1. 2 and 3, 1803, 182; East and North Coasts, July 1802-March 1803, 183-1 92 ;'Tiinor 1-8, 1803, 193-194 Shark 38 Shearwater 128 Shoalwater Bav 87-88 Snioaky Cape 96 Solandei , Daniel Carl ') Sparmann. Anders 10 Specimen of the botany oj New Holland 1 1 Speedy (Whaler) 23 Spencer, Earl Georgejohn. Fit si Lord oi the Admiralty 12 Spencers Gull ' 123 Sporing, Herman Diedrith 10 Sucking fish 38 Sulasp. 127 Sun, Eclipse 64 Sydney 25 Table Mountain 44 lahiti 7 Taits Island 98 Tamar wallaby 129 Tasman, Abel Janszen 7 Tasmania, see Van Diemen's Land Taylor, Midshi])man 61 Temminck, C.J. 20 Teria Austialis incognita 7 Textual introduction 3 1 rhirsty Sound 90 Thistle. )ohn (Masiei ol the Investigator) Three biot hers 96 213 Thimnus ataliin^a 127 Ciiiuiiin.ix ij^aimii 1 _' Tinioi IL'I R. BiDwn's lollii ii