BULLETIN OCT 22 1940 OF THE 1 1 ci Natural History Society OF NEW BRUNSWICK No. XXVI. Vol. VI. Part I. PUBLISHED BY THE SOCIETY. ST. JOHN, N. B.: Barnes & Go., Printers, Prince Wm. Street. 1908. CONTENTS. Page. ARTICLE I.— The Physical Evolution of Acadia. Part I. The Insular Stage of Pre-Devonian Development 3-16 ARTICLE II.— Notes on the Natural History and Physiography of New Bruns- wick., 17-39 ARTICLE III.— The Fungi of New Brunswick, 40-43 ARTICLE IV. — Observations on Weather and Plants, 1907, 44-45 ARTICLE V: — Memorial Sketch of the Late John Moser, 46 ARTICLE VI. — Phenomena of the Tides at Indiantown, 47-49 ARTICLE VII. — Notes on New Brunswick Weather for 1907, 50-54 APPENDIX.— Summary of President’s Address, 55 Report of Council, 56-70 Report of the Ladies' Association, 71 Donations , 72-74 Officers and Committees for 1908, 75-76 List of Members, 76-83 BULLETIN ' ' i[)F THE * Natural History Society OF NEW BRUNSWICK. No. XXVI. Vol. VI. Part I. PUBLISHED BY THE SOCIETY. ST. JOHN, N. B : Barnes & Co., Printers, Prince Wm. Street. 1908. v f: / f. (; | .1 ■' ; f1' f os rui.'i ui,' em .^C o m Paif^v ^ Zoo\oav V f^OCT 2219+0 u b k * ARTICLE I. THE PHYSICAL EVOLUTION OF ACADIA. PART I.— THE INSULAR STAGE, OR PRE-DEVONIAN DEVELOPMENT. By G. F. Matthew, LL. D., F. R. S. C. Read December 3, 1907. Under the above title the writer proposes to give a brief sketch of the physical geography of Acadia at different periods, of its geological history. This sketch is based on the observations of various field geologists from the time of Dr. Abraham Gesner to the present, and much of the data is drawn from the reports of the Canadian Geological Survey. While using these report the writer has given his own interpretation to the facts recorded, which, while they may not in all cases agree with those of other observers, are, he believes, the best and most natural explanation of the phenomena observed. This sketch of the geology is written in a somewhat popular vein, and details are as far as possible omitted, as their insertion would swell the paper to undue proportions. For this occasion I propose to confine myself to the early part of the history, namely, the ages preceding the great “ Devonian Revolution,” which thoroughly changed the physical geography of this region, introducing new faunas and floras, and raising up land areas and mountain ranges which did not exist before. The Laurentian Phase. On the north shore of the Bay of Fundy are some low hill ranges of great antiquity, whose rocks form the core on which the later geological terranes were built, and which had a tendency, age after age, to be pushed up or elevated when earth-movements were in progress, else they would long since have been buried 3 4 BULLETIN OF THE NATURAL HISTORY SOCIETY. under thousands of feet of the deposits of later periods; but this tendency of elevation has prevailed and brought them repeatedly to the surface. The structure of this Eaurentian terrane in the lower part is confused and obscure, but its upper part has a clear succession of limestones, quartzites and gneisses, which together form the “ Upper Series” so called, and exhibit a succession of strata and of changes in the sedimentation, quite as distinct as those which are found in later formations. Organic remains are rare in the fragmental sediments, for there are only a few worm burrows and other indications of the presence of marine animals in the quartzites and a few strap-like fossils in the silicious mud rocks. In the limestone, however, are reefs of that peculiar calcareous organism, Archoeozoon (apparently allied to the “ Layer Corals”) to proclaim the existence of organic life at this dawning time in the world’s history. Fossils of this type are known only from the oldest Palaeozoic rocks — and these more ancient ones — and this particular genus only in strata that are Pre-Cambrian. The physical history of these old sediments and the changes they have undergone are of intense interest to the thoughtful observer, as they lead us back to the very dawn of geological history. Even before Huronian time this great formation had under- gone important dynamical changes, had been deeply buried in the earth’s crust, and had been injected with extensive masses of syenite and quartz-diorite, which now separate the limestones into isolated basins. In many of these igneous masses the horn- blende has been chloritized, and sometimes we find the diorite dykes that cut this system converted into serpentine, showing that the whole mass of these rocks had been steeped in heated waters, and their anhydrous constituents changed to hydrated compounds, long before Cambrian times. In the island of Cape Breton, areas of rocks of this system, known as the George R. limestones, are found, some of which show even less change by metamorphism than those on the north side of the Bay of Fundy. They show a similar banded appear- ance in gray and dark gray colors, parallel to the bedding, and, THE PHYSICAL EVOLUTION OF ACADIA. 5 where they come in contact with the Cambrian rocks, are always found to run beneath them. It is supposed that this system is of the same age as the Laurentian limestones of the Grenville area near Ottawa, though the latter show a greater metamorphism, and the whole set of strata there are greatly disturbed and injected with masses of intrusive rocks carrying various crystalline minerals. In the New Brunswick area, near the Bay of Fundy, these foundation rocks are brought up in several parallel ridges, arranged in echelon, and separated by the strata of the succeeding terrane. Were we to attempt to interpret the physical history of this region, as shown in the “ Upper Series” of the Laurentian area, it might be stated in general terms as follows: — First — Omitting the lower and more altered part, with its feldspathic schists and its marbles, there is Second — A quartzite formation (originally a fine sand) marking the prevalence of ocean-shoal conditions — a sea bottom traversed by strong marine currents, and showing few evidences of the existence of living beings other than worm burrows, and casts and exuviae of these animals. Third — A thin formation of silicious mud, formed in stiller and deeper water than the above quartzites, as the ocean bottom sank. It contains strap-like organisms, probably seaweeds. Fourth — A great limestone formation. In the lower part this is chiefly a carbonate of lime with disseminated carbonaceous matter; in the middle it becomes magnesian and in the upper part it has many intercalated beds of fine grained pyritous trap and of fine grained gray clay- slate. A formation like this exposes a natural succession of members of a great sedimentary series. It is in the limestone that we find remains of the primitive reef builder, Archceozoon, and it is such a formation as in later ages would indicate pure ocean waters and a warm temperature. Synopsis. — To sum up this history there was: — First — A rather deep ocean with muddy and some calcareous deposits. 6 BULLETIN OF THE NATURAL HISTORY SOCIETY. Second — A shallow ocean with strong marine currents — a sandy formation. Third — A deeper ocean devoid of strong currents, giving a fine mud formation. Fourth — An open ocean with pure sea-water, having reef building organisms; and, as a result, a calcareous mud formation, now converted into limestone. As yet we have no proof that any part of Acadia was above the sea at this time, but it is evident that the sands of the second period must have been derived from the waste of some pre- existing land not very far away containing granitic rocks. The Huronian Phase.* We have to contemplate the existence of two terranes in this portion of the geological column in New Brunswick — a lower of clay slates and magnesian schists and grits with intercalated trap beds and levigated eruptives, capped by fine dark argillites; and an upper a great and uniform series of volcanic effusives. The relations of the different parts of the main or lower terrane are more difficult to trace than that of the preceding system owing to the softness of the upper member, which is usually concealed in the hollows of valleys where it has been eroded and subsequently covered up by later terranes of Palae- ozoic Age. The thickness of this terrane is very great as it may, in some places, be crossed for a distance of five miles, showing consecutive beds dipping at a high angle. As in the Laurentian system we found a great limestone member marking a period of rest and slow accumulation, so in this there is a mass of fine gray argillites or clay slates, indi- cating a time of repose when the earth’s crust was at rest and in this region and covered by an ocean of considerable depth. Such conditions and such deposits are likely to be wide-spread and serve to trace geological terranes from one region to another. *In this paper the term Huronian is used for the formations that intervene between the terrane just described and the base of the Cambrian System. THE PHYSICAL EVOLUTION OE ACADIA. 7 The lower portion of this division of the Huronian system in New Brunswick is of granitic grits and coarse clay-slates, having numerous chloritic schists and igneous intrusions in the eastern exposures; but in the Passamaquoddy district dark clay-slates with whin-stone beds or diorites prevail. In this division are most .of the metallic mineral found around Passamaquoddy Bay. In the more central part of Charlotte County, to the west- ward, these slates are heavily charged with sulphurets, chiefly of iron, but having also copper and nickel ores. The upper division of the Huronian system (“ Kingston series or terrane”) consists chiefly of igneous rocks, and pre- vailingly of volcanic deposits. It does not everywhere run concurrently with the lower division for, though adjacent to it in Kings County, is separated in Charlotte County by a dome or ridge of Laurentian gneisses and limestones. This division is very uniform in the character of its rocks, and extends north- east in New Brunswick from Beaver Harbor for a distance of seventy miles with a width of about five miles, to where it passes beneath later Palaeozoic formations and is lost to view. The magnetic iron-ore deposits of Lepreau, or New River, are in this mass of volcanic rocks. The Huronian terranes in southern New Brunswick, as a whole, are intimately associated with the Laurentian and form bands of strata alternating with the Laurentian masses. Of these, the most easterly exposed extends from Bellisle, in Kings County, to Beaver Harbor, in Charlotte County; a branch of this passes to the islands of Passamaquoddy Bay. Another belt of these rocks lies to the north-west of the granitic and gneissic area at the St. Croix river, near St. Stephen, in the latter county. In the very remote age in which this system was deposited it would seem that the earth’s crust, in this region, was already being thrown into those parallel north-east to south-west folds, which have marked it in all subsequent time, and the causes which now operate to squeeze and disturb the strata here were active even then. Perhaps the most distinct proof of this pressure and consequent dislocation is the sharp line bordering s BULLETIN OF THE NATURAL HISTORY SOCIETY. the Kingston terrane on its south side, where it comes in contact with the Laurentian. In Charlotte County the great mass of the Kingston series, 10,000 feet thick, may be seen dipping towards the Laurentian rocks, but never transgressing this sharp dividing line. Hence, we conclude that this was an old fault line where these igneous effusions found vent, and that as fast as the Huronian lava and ashes were poured out they were de- posited on a sinking land north of the fault, while the earth's crust south of this line continued to rise, preserving the emerged Laurentian land. Any lava and ashes that may have been thrown out on the south side of the fault have been eroded and removed ages ago, owing to the frequent elevation of the land in the area on that side, where now the Laurentian rocks are exposed. Following the deposition of the Huronian rocks there must have been elevation and a period of denudation before the depo- sition of the Palaeozoic sediments, for these lie in valleys worn in the softer parts of the Huronian; such a valley is that occupied by the Long Reach of the St. John River and Belleisle Bay and others farther west. In all this region throughout Huronian and most of Palae- ozoic time wTe find no great limestone deposits such as belong to the Laurentian below; the next important limestones are those at the base of the Carboniferous system, which are easily recognized by their organic remains. No such fossiliferous land- marks are known in the Huronian strata, so that, in determining the age of these, we have to rely on their stratigraphical relations to adjoining Laurentian or Palaeozoic masses of rock; and from their relation to the Laurentian on one side and the Cambrian on the other, we conclude that the rocks described above should be referred to the Huronian System. The system of rocks in Nova Scotia which we would parallel with the Huronian of New Brunswick is the Maguma or gold- bearing series of the Atlantic coast. As seen in the eastern half of the peninsula of Nova Scotia, the lithological appearance is in strong contrast with the Huronian on the north side of the Bay of Fundy; but Professor Bailey, in tracing the gold-bearing THE PHYSICAL EVOLUTION OF ACADIA. 9 series westward along the coast of that province, found that hornblende schist and other volcanic rocks were intercalated; and with these were red and greenish slates such as are found in the corresponding rocks of Kings County, New Brunswick, so that there would appear to be a passage through such beds from the quartzites of the gold-bearing series to the dark-gray slates with intercalated whins and diorites found in New Bruns- wick. Or in other words, the sandy shallow water strata of eastern Nova Scotia gradually change to mud-beds in the deeper water which would then have prevailed to the north-west. Over eastern and central Nova Scotia a body of black and dark gray slates (‘‘Halifax formation”) overlie the quartzites of the gold-bearing series, and reminds one greatly of the graptolite schists of the older Palseozoic rocks. But these dark slates are folded in with the old quartzite series above named and form an integral part of it. They are to be paralleled with the fine slates in the upper part of the Lower Huronian in New Brunswick; the Kingston volcanic terrane which overlies them being younger and not occurring, so far as we know, in that part of Nova Scotia. No remains of animals or plants have been found in the Huronian of either New Brunswick or Nova Scotia; worm bur- rows, however, and some obscure markings are known in the quartzites of the gold-bearing series in the latter province. But as there are well marked indications of organic forms in the Laurentian rocks below, no doubt lowly forms of life existed through all these periods. The destructive effects of igneous or volcanic outbursts, which took place at this time in New Brunswick, may have obliterated all traces of the marine animals that then existed. Synopsis. — To sum up the physical conditions in Huronian time it may be said that there was in geographical sequence a condition of things similar to a portion of the geological sequence in the “Upper Series” of the Laurentian, of which we have previously spoken, corresponding to the two first formations named, only on an immensely greater scale as regards bulk. The Goldenville division of Nova Scotia represents the ocean shoal deposit, 10 bulletin of the natural history society. while in the deeper waters, north-west of it, in New Brunswick were deposited the dark gray slates and whinstones of a deeper ocean. In Nova Scotia, the Goldenville quartzites pass upward into dark carbonaceous slates (“Halifax formation”) as the coarse slates and grits of New Brunswick pass up into fine dark gray slates. As yet, however, we find no Acadian land, though as in the Laurentian time the , sands of the quartzites and grits indicate that some adjoining portion of the earth’s crust was above the sea — now, however, more definitely placed than in Laurentian time by the long Atlantic border of the Maguma formation. To the Kingston effusives, as indicative of an active volcanic movement along a definite line in southern New Brunswick, we have already alluded. They mark an episode and a time not yet recognized in the Maguma area in Nova Scotia but probab- ly in certain effusive rocks to the north of it. EXPLANATION OF MAP NO. 1. The time chosen for representation in this map is for Nova Scotia the upper part of the quartzite division of the Maguma or gold-bearing series. At this time, while the quartzites still continued to be deposited in eastern Nova Scotia, as shown by E. R. Faribault, the western half of the peninsula had variegated slates, etc., as shown by Professor L. W. Bailey, and, in the extreme southwest, volcanics. The fine dark slates and silicious mud rocks of northern Nova Scotia, here considered deep-water Huronian, in the Canadian Geological reports are called Cambro- Silurian. For New Brunswick the map shows also Laurentian and Upper Huronian belts and a basin of Cambrian rocks. The Cambrian Phase. There is good reason to suppose that a large amount of denudation occurred after the Huronian formation was deposited and before the oldest Cambrian deposits were produced and therefore that a long time-period intervened with the earth’s crust in this region raised above the sea. One reason for this view is that all the known Cambrian areas have terranes that began with land depositions and that THE PHYSICAL EVOLUTION OF ACADIA. 11 the older rocks beneath the Cambrian are softened and decom- posed at the contact as with the basement beds of the latter, as though they had for a long time been exposed to atmos- pheric wear before being buried under volcanic ashes, etc Another reason is that while one Cambrian basin may rest on Huronian, another has its foundation on the Laurentian rocks; this implies the erosion, in some places, of the whole Huronian terrane, a mass of enormous thickness, before the deposition of the Cambrian. As contrasted with the enormous bulk of the Huronian forma- tion, those of the Cambrian time in this region are of modest proportions, unless one gives a large value to the volcanic masses which, in some districts, lie at the base of the Cambrian. These seem always related to a subsequent subsidence which brought in the sea upon the land; thus, the Cambrian basins (marine deposits) were, as it were, a consequence of these eruptions The Loch Lomond and the Quaco hills in southern New Brunswick are the best known bodies of effusives of this time and between them lies one of the deepest basins of Cambrian sedimentary rocks of which the Acadian region can boast, and it is in this that the most complete series of Cambrian faunas of this part of the world has been discovered. In like manner in Cape Breton the Cambrian basins are underlain by great masses of effusive rocks; this is particularly marked on the Mira River, but is also seen elsewhere. The undermining of the earth’s crust by such agencies was a pre- disposing cause for the production and also the preservation of such deep Cambrian basins. Yet we know from the similarity of the succession of strata in New Brunswick and in Cape Breton, that the agencies for its production were common to the whole region of Acadia; and that these now isolated patches of sediment are but small remnants of what was once a widely extended terrane. Such being the case the description of the variation in the sedimentation of one basin will, with considerable accuracy, apply to all. Passing the volcanic formation and its related red and greenish sandstones and shales (Etcheminian), the members of division 12 BULLETIN OF THE NATURAL HISTORY SOCIETY. I of the St. John Group make up a formation largely of gray and dark gray clay shales (the Acadian) which would have been deposited in shallow sheltered bays among the volcanic islands — active volcanoes in earlier times but now with their fires extinct. The opening up of marine passages to the northern seas allowed the ingress from that quarter of strong currents that spread fine sands over the submerged surface and produced the formation known as Division II (Johannan). The sands of this division may have been the worked-over sands of theMaguma series of the earlier Huronian time, which spread all along the south- eastern side of the Acadian peninsula, then probably an island. A further depression of the bottom would carry it beneath and free of the range of the strong northern currents into the deeper and more sluggish ocean waters, and would allow of the deposi- tion of the fine dark mud of Division III (Bretonian), the highest formation of the Cambrian terrane, which is partly Ordovician. This was the condition of things along the northern border of the Acadian (or Nova Scotian) peninsula, but in the northern part of New Brunswick conditions were different and the Cam- brian age is represented by a formation of quartzites on sandy deposits, capped by Lower Ordovician mud rocks that are found on the Beccaguimic River and extend thence northeastward and southwestward. Synopsis. — To sum up the history of this geological system, we find it to have been ushered in by the bursting forth of volcanoes over various parts of the area north and northwest of the district occupied by the great Huronian, or gold-bearing series, of Nova Scotia, and that where these volcanoes appeared the earth’s crust was above the sea. Next followed the sinking of the volcanic deposits beneath the sea, and the invasion of the bays thus formed by a succession of Cambrian faunas termi- nating in that of Paradoxides. This sea was then opened to the incursion of cold currents from the north and east, and the Syrtensian or Ocean-shoal phase was inaugurated, with its com- paratively barren sands. Finally the exclusion of these strong currents and the deepening of the sea afforded a sheltered area of the sea bottom where the Parabolina, Peltura, Dictyonema and Tetragraptus faunas in succession held sway. THE PHYSICAE EVOLUTION OF ACADIA. 13 The Silurian Phase. It will be understood from remarks in the preceding section that the Tower Ordovician is included in the Cambrian terrane; this is shown by the presence of the Tetragraptus fauna in southern New Brunswick, the Tremadoc in Cape Breton, and the Tlandeilo fauna in the northern part of New Brunswick. But what of the great Trenton and Hudson River faunas of the interior basin of North America and of the St. Lawrence valley? these are wanting in all Acadia and Maine , hence we assume that this region was above the sea during the long period of time marked by the deposition of these formations, and Acadia was again restored to the condition of dry land, which existed there at the opening of the Paselozic time. During this period, deep weathering and great erosion of its land surfaces took place; for while we find the succeeding terrane resting in some places on the upper beds of the Cambrian terrane, in others it rests on the Paradoxides beds, and elsewhere on the Huronian. We cannot doubt, therefore, that there was a great erosion of this part of the earth’s surface while Acadia thus remained above the sea in the later Ordovician age, and that deep weathering of the land surface then provided ample material for the building up of the succeeding terrane. As in the Cambrian time so also in the Silurian, one of the first steps in the process of formation building was the beginning of volcanic effusions with the piling up of diabases, felsites or ryolites and other igneous rocks, which, with the accompanying elastics, form the Bloomsbury formation in southern New Bruns- wick, and similar deposits in Northern Nova Scotia. These are about the horizon of the Medina sandstone of' New York. Resting upon these is a formation which, in most of the sections, is a fine dark shale, but which, at St. John, in its lower part, exhibits a thick, strongly cemented sandstone, with beds of such shale. In northern Nova Scotia this formation contains graptolites etc., of Clinton age; in southern New Brunswick it has Silurian fishes and Phyllopods, and at St. John, in this province, remains of land plants. The next formation is one of paler shale with more calcareous 14 BULLETIN OF THE NATURAL HISTORY SOCIETY. matter. This has Niagara marine fossils in northern Nova Scotia and a continuation of the land flora of the preceding formation in southern New Brunswick ; also elsewhere in the same province, a Niagara fauna and graptolites of Upper Silurian type. Still paler shales follow these in southern as well as northern New Brunswick and while in the northern part of the province they contain a Lower Helderburg fauna, along the southern coast of New Brunswick they have a continuation of the land flora of the older sections of the terrane and, elsewhere in New Brunswick, Helderburg marine fossils. Capping these rocks and somewhat unconformable to them along the shores of the Bay of Fundy, is a formation of felsitic volcanic effusives with red slates and conglomerates, known as the Mispec Group or terrane. These are not found in the centre and north of New Brunswick; they are probably the equivalents of the iron-bearing slates of Nictaux and Torbrook of the Annapolis Valley and of the Knoidart formation with fish remains of Lower Devonian type, recognized by Dr. Ami in northern Nova Scotia. Synopsis. — If we were to take a definite horizon of somewhat broad range chronologically, viz., including the Clinton and Niagara, the Acadian region would present an interesting variety of conditions in its land area and submerged water-front. First, we would have the Acadian Silurian land border, extending in a curve from Canso, in Nova Scotia, to Point Lepreau, in New Brunswick, and thence, no doubt, further south-west; in the western part of this area, at St. John and its vicinity, are the remains of an old delta-plain of a river having its sources seemingly somewhere to the south-east, (or to the northeast) and faced by estuarine deposit to the north-west, containing re- mains of fishes and crustaceans. Bordering this land area on the north and west is a series of beds containing a littoral marine fauna such as might find shelter in shallow protected bays; this line of deposits extends from Machias, in Maine, by way of the Nerepis Hills, in New Brunswick, to the Cobequid Hills and the Arisaig shore, in Nova Scotia. as? THE PHYSICAL EVOLUTION OF ACADIA. 15 Outside of this, to the north and passing through the south- central part of New Brunswick diagonally, is an area of gray slates and flags, mostly barren of fossils but having a few grap- tolites. This is a Syrtensian or ocean shoal area, similar to the ocean shoal area of Lower Huronian time in Nova Scotia, it was traversed by cold currents from the northeast which brought the graptolites from a more northerly station. Finally, extending across the northern part of the province is an area of more calcareous and lighter colored slates with layers of reef building corals and various genera of brachiopods and lamellibranchs. These corals indicate a warmer temperature of the sea, and so probably a current setting north-east and carrying warm waters from a southern source. This contrasted condition of the sediments going northwest- ward on the Silurian rocks, reminds one of the succession vertically in the St. John terrane, only that the highest division of the latter, with its Scandinavian faunas, evidences the con- tinued presence of cold ocean waters from the North Atlantic, rather than of warm currents from a tropical or warm-temperate sea, was found in northern New Brunswick in the Silurian age. EXPLANATION OF MAP NO. II. The time chosen for representation in this map is the middle of the Silurian Time, marked in this region by the deposits of the lower third of the terrane. Judging by the absence of strata of this age, from all southern Nova Scotia it was then dry land, and was a part of the gathering ground whence came the rafts of trees that are now found in the Dadoxylon sandstone of New Brunswick. In front of this Nova Scotian highland (to the north-west) are the deposits of a marsh and lagoon area containing a varied land flora of pseudo Carboniferous facies. Northwest of this (in the Nerepis Hills) are estuarine beds with Silurian fishes and crustaceans and dwarfed brachiopods. East and south-west of these we find Silurian littoral animals of several classes. North- west of the Nerepis hills is a wide belt of flags and slates with a sparse fauna including Monoprionoid graptolites, indicating cold ocean waters. This is separated by a ridge of older rocks 16 bulletin of the natural history society. from an area in northern New Brunswick, where a Bower Helder- burg fauna with corals is prevalent. The known facts relative to the early geology of this region would lead to the conjecture that during the greater part of earl)’ Palaeozoic time this part of Acadia was cut off from the Laur- entide region of Quebec and from the Archaean areas of New Eng- land by one or more sounds of the sea, and that the peninsula of Nova Scotia, with probably a portion of the earth’s surface to the south-west of it, now submerged, was the nucleus of the Acadian land; this is more clearly shown in Silurian time than earlier, by the abundance and variety of the fossils, and their wide distribution. Protected from the arctic winds of the Labradorean region by the warm currents of the sea to the north, this favoured land had every opportunity to develop a remarkably varied and highly organized land vegetation such as has not been recog- nized in rocks of this age in any other part of the world. In a future paper we shall show how the marine barrier, separating this Acadian Atlantis from the adjoining continent, was removed and how in, and subsequent to the Devonian time representatives of its flora were spread over the continent southward and westward, finding there new homes and develop- ing into new species and mutations, while the original home of these plants became the abode of another type of vegetation, namely, the Devonian type that had flourished in Gaspe and the Baie Chaleur region in the earlier time. The munificent benefaction of $1,000,000 given by the late Morris K. Jessup to the American Museum of Natural History in the city of New York, will show the appreciation at which such institutions are held in the neighboring republic, and may stimu- late some liberal-minded Canadian to aid in a similar way the Museum of the Natural History Society of New Brunswick. What this institution most needs at present is a liberal gift that will pay off its mortgage, aud enable it to devote all its funds to the advancement of its work in the lines of study and general improvement to which it is devoting its energies. ARTICLE II. NOTES ON THE NATURAL HISTORY AND PHYSIO- GRAPHY OF NEW BRUNSWICK. By W. F. Ganong. 107. — On the Physiographic Characteristics of Portage and Fox Islands, Miramichi. Read (in abstract) May 1, 1906. The islands of the coasts of New Brunswick fall into two classes. They are either the tops of submerged hills, as in those of the Bay of Fundy and Bay Chaleur, or else they are banks of sand heaped up by waves and wind, as in nearly all that re- markable series along our North Shore from Miscou to Buctouche. Of the sand islands two differ in size, in details of structure, and in vegetation, from all the others, namely Portage and Fox Islands, which lie across the mouth of the Miramichi.* *The origin of the name Portage as applied to this island is not known. One persistent local tradition, current especially among the English, asserts that formerly this and Fox Island were united, with a narrow neck where now is the passage between them, and that across this neck the Indians portaged their canoes when wishing to change sides in passing along the coast. Substituting a neck at the north end of the Island, where no doubt it was once attached to the mainland, the explanation is rendered possible, if not probable. It receives support from a Des Barres map of 1780 which marks just there, “carrying place.’ Another local explanation, given by the French, is that the word was originally potage, and was applied because the hunters and others who went there used to plan to cook their noon * 'potage’’ upon it, an explanation which receives a certain support from the fact that two early maps, made independently of one another, use that form (Jumeau, of 1685, and L’Hermitte, of 1727). It is possible that neither explanation is correct, and that the name arose from some early circumstance or custom obscure to us; and this is rendered probable by the existence, near Cape Sable, Nova Scotia, of a Bon Portage Island to which neither of the above explanations would seem likely to apply. Fox Island was very probably named not from the animal but in honor of the great parliamentary leader, for the name appears first upon a map (of about 1780) by DesBarres, most of whose names were given in honor of persons; thus he named Portage Island Waltham, though the name has not persisted. Aside from a traditional reference given by Cooney in his History, (page 30), to the effect that the island was the seat of an •early establishment for the Walrus fishery, the Islands have apparently no history, even of a traditional sort. They are each owned by a number of persons, to whom they have been granted in lots for the valuable salmon and lobster fisheries of the shores. In the autumn they offer good opportunities for the shooting of wild fowl. They have no per- manent residents, for in winter even the light keepers and the many summer fishermen abandon them. The lighthouses and beacons, the fishermen’s sheds and huts, their boundary stakes, their net- racks, their paths, their -wells, and the occasional stacks of .dried beach or marsh grass cut for hay, — these are all the signs of their use by man. 17 IS BULLETIN OF THE NATURAL HISTORY SOCIETY. I have made some study of them, with results as follows. Portage Island is composed of a series of approximately- concentric low dune-beaches with intermediate shallow hollows, a series of sand swells or billows, arranged somewhat as shown by the accompanying map, which, as to the beach lines, is merely a crude sketch. Near its northern end the beaches, bearing the oldest woods, are parallel with the axis of the island, and here they are being cut away, together with their covering woods, by the sea. Farther south these same beaches curve around to the westward and finally sink gradually beneath the waves of the Inner Bay, their summits projecting as points, while their intermediate hollows form coves of salt marsh. These beach lines, as may be seen at many points, form only above the reach of the highest tides, and their gradual disappearance beneath the waters of the Inner Bay forms one of the very best evidences we possess of progressing subsidence in this region, evidence still further strengthened by the occurrence, near the north end of the island, of peat in situ on the beach below high- water mark. Farther south the beaches are very obviously newer; at first they are clothed with young birch woods but finally they are entirely bare except for the ubiquitous beach grass. Towards the extreme south the beaches are very wider with very broad hollows, and are forming so rapidly that not only have they every aspect of newness, but the driftwood some hundreds of yards from the sea has not yet had time fully to decay. The rapidity of growth, far surpassing anything I have seen elsewhere in this region, is fully confirmed by local tradition. Not only is the growth thus rapid at present, but it appears to have commenced abruptly; for not far from the margin of the older woods and beaches there lies a great broad beach hollow now occupied by a considerable lake, while two or three others of much smaller size exist in the woods near by. It is thus evident that while this island is now being rapidly washed away at its northern end it is forming rapidly, no doubt from the same materials, at its southern end, and the whole island is, so to speak, rolling southward along its outer margin. In this respect, as well as in the general construction of its beaches, in its lower - ■■■, . •• ' ' ' . ••• NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 19 inner margin and in other features, this island bears a very striking resemblance to Grande Plaine, Miscou, which I have already fully described (Note 97, and especially the Botanical Gazette, XUI, 1906, 81). This resemblance, I believe, is not accidental but genetic; all the facts seem to me to indicate that Portage Island, like Grande Plaine, was formed against neigh- boring upland, of which, perhaps, the Horse-shoe Shoal represents a part, and which the increasing subsidence of the land has submerged below the surface of the lagoon. The reason why the north end of the island is now being washed away is plain; the headland north of it, at Blaeklands, which would naturally protect it, as will be more fully considered in the following note, is composed only of soft peat which is rapidly being removed by the waves. While Portage Island thus resembles Grande Plaine very closely in general physical features, albeit with its beach pheno- mena upon a markedly larger scale, there are some notable differences in the vegetation. Thus, while the woods of Grande Plaine are of mixed formation, with white spruce as the dominant tree and the one which leads into the open, the pines being nearly or quite wanting, here at Portage Island the old woods are mainly coniferous, composed largely of Prince’s Pine, with White Spruce and some White and Red Pine. Further, the woods advancing upon the open ground are preceded by dense copses of White Birch, (with some intermingled Aspen) a tree not found in this situation at Grande Plaine, where its place is taken, but only in small part, by dwarf Poplars. Further, the characteristic and attractive grassy swales of Grande Plaine are here quite wanting, their place being occupied by thickets of Sweet Gale, Spiraea and Roses, while *a still more remarkable and unexplained lack is the creeping Juniper so abundant at Grande Plaine. Certainly we have, in the striking differences of vegetation in these two physically-similar and floristically-contiguous places, an attractive problem for the ecologist. As at Grande Plaine, the oldest woods are perfectly closed or dense, and the newer beaches are perfectly treeless, while the intermediate areas show open park-like glades and vistas, interspersed among lines and 20 bulletin of the natural history society. scattered individuals of very perfectly formed trees; while the glades are more or less carpeted by a close mat of Bearberry, Hudsonia, Reindeer Moss and low Blueberries. From a distance this scenery is most attractive, but it does not improve upon acquaintance, because of the thinness of the carpet and omni- presence of the sand. Fox Island I was able to study only hurriedly, and my sketch map must be very imperfect. Fox Island differs markedly from Portage Island in the great irregularity of its beach lines, which in many places are simply complexes of irregular flat mounds or low dunes to w^hich it is impossible to assign any prevailing direction. Yet at times the beach lines are distinct, and then frequently they run not parallel with the axis of the island but across it, as the lines on the map will indicate, though in other places a parallelism is plain. The cross direction of the beaches may simply be relics of ancient gullies, but more probably they indicate that the present island is a remnant of a much larger plain which must have extended out much to the westward, where it no doubt included the great shallow flats between it and Bay du Vin Island, now submerged by the subsidence of the region. Turning to the charts we find that off to the north- east of the Island, in the direction some of the beach lines point, there lies a great shallow bar,* with only four feet of water upon its highest part at low water. This also may have been formerly a part of the Fox Island Beach Plain, though it is also possible this bar is a remnant of a former sand island destroyed by subsi- dence and erosion. In the former case the main channel out of the Miramichi must have run north of the bar. across where now is the newest part of Portage Island, while the present channel inside the bar was later gouged out as the northern channel was filled by the extension southward of Portage Island. In any case, it seems fair to conclude that Fox Island is a rem- nant of a former much greater beach plain, reduced to its present dimensions by erosion and subsidence. The irregularities of the beach lines, however, indicate that this plain was somewhat *The fishermen, under the spell of the universal wonder-spirit, say this bar is exactly the same size and shape as Fox Island. NATURAL HISTORY AND PHYSIOGRAPHY OP NpW BRUNSWICK. 21 irregular in its formation. I believe traces can be seen of an- old channel across the narrowest part of the island in line with Bay du Vin Harbor and Black River. The vegetation of Fox Island differs from that of Portage Island mainly in the greater proportion, amounting almost to a pure growth, of Prince’s Pine in its woods, and in the greater irregularity of distribution of these woods, which are as indeter- minate as the beach lines. In places, especially towards the southwest of the island, lie great open carpeted spaces which extend off through glades and vistas, with scattered perfect trees, strongly suggestive of a baronial park. The whole presents from a distance a striking scenic attractiveness unfortunately not increased by a closer acquaintance. Both Portage and Fox Islands, therefore, appear to have been formed as true beach-plains against neighboring upland, precisely as Grande Plaine is forming to-day. Their separation from the upland is due to subsidence of the land admitting the sea to flow over their oldest and, therefore, lowest parts, while their outer parts have been more or less eroded by the advancing ocean. The question now arises, against what land did they form? Of course it may have been against the present neighboring upland shores, but the somewhat deep channels intervening seem against this. Considering, however, the probable physiographic evolution of this region, a subject earlier discussed (Note 93), it seems likely that originally three rivers flowed through the present Miramichi Bay, (a) the main Miramichi ( Miramichian ) following near the Neguac Coast and out near the Blacklands (whose peat was perhaps formed in its valley), (b) the Napan ( Napanian ) which went out where now is the south end of Portage Island, and (c) the Black River (M atquantian) which went through the deep Bay du Vin Harbor and out across the middle of Fox Island. Low ridges must originally have existed between these valleys, and these ridges, I take it, as they were carried to sea level by the general subsidence (aided perhaps by the synclinal folding which has so powerfully influenced this valley), constituted nuclei about which formed the first of these sand plains, which, however, have suffered many changes since their first formation. 22 bulletin of the natural history society. At least such seems to me a reasonable general hypothesis, one which I trust some successor of mine will try ere long to test by more prolonged study of these interesting questions. 108. — The Physical Geography of the North Shore Sand Islands. Read (in Abstract) May 1. 1906. Those who have knowledge of the physical geography of New Brunswick are aware that our North Shore, all the way from Miscou to Buctouche, is fringed by a line of long, low, narrow sand islands; but few have any idea of their great scien- tific interest or know that they constitute the finest example of this particular physiographic structure found any where upon the American coast north of New Jersey. In the course of three summer trips in that region, during which I have coasted in a canoe throughout practically their entire length, I have been interested to observe their salient characteristics, upon which I would now offer the following comments. The eastern part of New Brunswick, from Miscou far to the southward, consists of a great low plateau sloping gently east- ward until it dips gradually beneath the sea. This plateau is drained by a series of ancient broad shallow valleys, now occupied by rivers far smaller than those which originally formed them; and these valleys are separated by low-swelling ridges. Where land and water meet, there the ridges project as low headlands, while the valleys are entered by the sea in the form of markedly inbowred coves, cut in some place or other by the channel of the present river. It is across these coves, converting them into lagoons, that the sand islands extend, festooned from headland to headland in great curves inbowed by power of waves and wind, and cut here and there by the unstable and shifting gullies which give exit to the waters of the rivers. These islands, which are often peninsulas, are composed almost wholly of gray sand, derived from the wear of the sandstone headlands, but with some intermingled gravel, small cobbles, shells and sea-drift. Towards the sea, where they are endlessly pounded by the great billows, they present a moderate slope, smooth and hard, which, NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 23 above the high tide, gives place to loose sand easily moved by the wind, but prevented by the omnipresent beach grass from forming dunes of appreciable size. Landward the slope is more gentle, and is clothed above by the waving beach grass, lower by a close, fine, swale-like turf, still lower by a close salt marsh, whence, with a very irregular margin, it dips imperceptibly beneath the surface of the lagoon. This lagoon is varyingly shallow, with a bottom of sandy mud which supports a great growth of the salt-water eel grass, Zostera marina, whose extreme abundance is a characteristic feature of these lagoons, and which is only wanting where salt marshes form in coves or angles, or where the river channels wind their sinuous ways to the gullies. These lagoons, partly because of their shelter and partly because of the calming effect of the eel grass, are always smooth and safe no matter how hard the winds may blow, or how roughly the sea is breaking upon the coast just outside. This safety made them great canoe routes for the Indians and led an early voyager (Smethurst, in 1761) to speak of them as “the finest conveniences possible for canoes.” This is something of which I can myself assure the truth, for I have sailed my canoe upon them miles and miles in happy safety under a wind that strove to tear the sail from its fastenings and raised roaring surges upon the beaches outside. Somewhere the lagoon receives the river, up which the tide, here with a range of some five or six feet, runs as a quiet estuary or tideway for many miles, branching in places into many marshy coves and creeks. Taken as a whole these islands, which the residents invariably call Beaches, are singularly uniform in their characters. Except- ing Portage and Fox Islands, which are beaches of such immense development and special features as to deserve treatment in a separate note (Note No. 107), they are quite treeless, clothed only with the sparse Beach Grass, intermixed, in sheltered places, with low clumps of the Wax Myrtle, Hudsonia, Dwarf Roses, Sweet Gale, and a few rarer plants of humble habit. This grass, with that of the salt marshes, is cut sometimes for hay, and some- times is used as pasture for horses and cattle, whereby the Beaches yield a small tribute to man. But a richer harvest is 24 bulletin of the natural history society. gleaned from the fisheries, for salmon following the coast are here caught in nets, and lobsters are trapped just off the shores. The buildings connected with these fisheries, sometimes small, scat- tered huts, but more often clustered near the little lighthouses at the gullies, are the only habitations the Beaches show. From a distance, especially in certain quiet hazy states of the atmos- phere, the low-lying Beaches seem to sink from view, and leave the gray buildings floating mirage-like upon the waters. The low, gray line of distant Beaches, the weathered buildings shim- mering on the water, the distant roar of billows on the outer beach, the murmur of wind in the Beach Grass, the screaming of the gulls over the still lagoon, a feeling of peace and content, these are the character-feelings of the Beach country. To some the Beaches may seem drear and without charm, but they have ample attraction for those who love strong and simple things and the open places of the earth. So definitely are the Beaches marked off by their bounding headlands that it is possible to classify them very definitely, as indeed is done in the speech of the residents, who name them for the /i vers before which they lie. They are as follows: 1. Miscou Beaches. With these belongs the remarkable and instructive great beach plain at Grande Plaine, which I have already described in an earlier Note (No. 97, and in the Botanical Gazette, XLH, 81) and which is mapped, with those following, on the physiographic map accompanying the note mentioned. Then follows a series of five beaches, extending from headland to headland, enclosing ponds and the two Mai Baies, all clearly shown upon the map above-mentioned. The headland between the two Mai Baies is of soft peat, rapidly disappearing before the inroads of the sea, and here the beaches are following it inward to the detriment of their typical forms. Finally there is the fine great beach extending across to Shippegan Island, cut by Miscou Gully. 2. Shippegan Beach. A very short and imperfect beach, extending from Shippegan Island to the mainland, and cut by Shippegan Gully. The maps appear also to show a small beach enclosing some ponds just south of Pigeon Hill on Shippegan Island . 3. Pokemouche Beach. Extends from the upland point close to Shippegan Gully clear to Green Point, enclosing Little Pokemouche and Pokemouche Lagoons, and cut by two gullies. 4. Tracadie Beach. Extends from Green Point (glacial upland on a ira m ich V. ; J ■■>, . .■ V;V;.'VU'. . . -- : " 'it -r . . . ,• •; NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 25 ledge foundation) in a fine typical curve to the upland of Pointe a Barreau, (a low ledge point) broken by two and sometimes more gullies. 5. Tabusintac Beach. Extends from the headland of Point a Barreau,. to the Blaeklands. It is notable for its reversal of the usual shape, for it is concave to the land, for reasons to be explained below At its southern end, and inside are two or three small islands now in process of formation. 6. Miramichi Beaches. These consist of a series embracing Neguac Beach, (or Island) Portage and Fox Islands, with the outer beaches of Huckelberry Island (which border, outside, a nucleus of upland) and the small beach outside McLean’s Cove. The more important of these have been sufficiently discussed in the preceding note. Bay du Vin Island and Egg Island are not Beaches but upland islands, as is the nucleus of Huckle- berry Island. 7. Escuminac Beaches. These consist of three, extending between Escuminac and Sapin Points and intermediate minor headlands, across the mouths of Escuminac River, Eel River and a brook just north of Point Sapin. These are of especial interest as showing the mode of origin of the greater Beaches, for in the case of the first two, while they are still shore beaches, lagoons are forming inside them. 8. Kouchibouguac-Richibucto Beaches. These, in reality, extend all the way from South Point Sapin, in a splendid great inbowed curve, clear to the rocky Richibucto Head, and constitute by far the longest and most perfect in every way of the entire series. For some distance south of Cape Sapin the beach encloses simply bog and marsh, with small lagoons at Portage River and the creek south of it; but for the remainder of the distance it borders a fine series of large lagoons. 9. Chockpish Beach. Extends from the rocky Richibucto Head in an inbowed curve south to a rocky point just north of Buctouche Beach; encloses mostly bog and marsh, but with rudimentary lagoons. It is thus another forming beach. 10. Buctouche Beach. Extends from the rocky point, mentioned under 9, southeasterly, but curving in towards the shore and ending in a free point; it is thus, like Tabusintac Beach, exceptional, for reasons to be discussed below. At present, the sea is trying to cut across the head of this beach, and extensive works are in progress to prevent its accomplishment, which would injure Buctouche Harbor. Beyond Buctouche no true beaches are found, though there is some slight approach thereto at Cocagne, and especially at Aboushagan. The series is really continued in that along the outer coast of Prince Edward Island. Of the Beaches in this list, all are hung in the typical inbowed 26 BULLETIN OF THE NATURAL HISTORY SOCIETY. curues from headland to headland except three, — the minor case at the Mai Baies already explained, and those of Tabusintac and Buctouche. The latter are attached only at one end but are free at the other, and are outbowed. Yet in both cases the explanation is plain. The Tabusintac Beach has at present no southern headland except the peat-cliffs of the Blacklands, which are being eroded with great rapidity, and which obviously the free end of the Beach is following steadily landward. Yet I have no question that in recent times this Beach had a southern headland, off to the eastward, towards which it ran inbowed, though only a suggestion of such a place is given by the charts. Not only is the existence of such a headland probable from the Beach phenomena, but it is necessitated by the presence of the Blacklands, whose great deposits of peat must have had an upland rise between them and the sea. At Buctouche. the -explanation is different; here there is no peat and. at first sight, no visible cause for our phenomena. But inspection of the charts will show that off to the east of the Beach, in. exactly the position to which it would extend in the usual concave form, there lies a shoal of rock, called the “ North Patch," having upon it only two fathoms of water. This shoal was. no doubt, the old anchorage of the outer end of this Beach, which, deprived of support by its subsidence, is now swinging gradually land- wards at its freed end. This is confirmed by the presence of a great, somewhat incurved, bar extending from the North Patch south to near Cocagne Head, which bar. without doubt, is the eroded and sunken remnant of another old incurved Beach. I have spoken of the Beaches following the coast inward, which at once raises the question as to how these solid Beaches can thus move. One’s first explanation is that as the land sinks the sea mounts higher and higher upon them, so that the waves and wind can continuously move their crests landward, thus rolling the crests, so to speak, over and over landward. Yet observ ation shows that this mode of movement does not occur, except under unusual conditions to be mentioned below, for the sand can be built up above the highest tides very much faster than the subsidence occurs; and, moreover, the sand is NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 27 soon so fixed by the beach grass that there is no great movement landward thereafter. On the contrary, the whole tendency of wind and waves is to build the beach outward, precisely as we see them doing upon a huge scale both at Grande Plaine and at the south end of Portage Island. There are, however, two principal ways in which the Beaches are moved inwards. In the case of those with one free end, like Tabusintac and Buc- touche, it is easy to see that the waves and wind are continually planing off the sand and moving it in the prevailing wind direc- tion (here from the northeast), towards the free point, where it is carried around and dropped in the quiet eddy under shelter of the point. This process, if continued long enough, especially when aided by the occasional action of winds blowing into the lagoon, gradually works the whole point inwards in a long curve concave to the shore. Moreover, as the older Beach thus becomes worn thin and low, the Beach Grass can no longer hold it, and then the wind may aid directly by rolling the sand inward over the crest of the beach. The second, and upon the whole the most important, method is the carrying of the sand through the gullies into the lagoons, where it is deposited as bars and shoals; these gradually become low islands which form the nuclei of a new inner line of beaches. A very fine example of this mode of origination of a new inner beach line is found in the series of new-forming little islands inside and between Tabusintac Beach and Neguac Beach; and there are other cases in Kouchi- bouguacsis Lagoon and elsewhere. Then in time the gully fills up, and this is always at the expense of the material of the neighboring beach, which is thereby moved inward just that much. Every formation of a gully, therefore, means the move- ment inward of a considerable portion of old beach. Now these gullies are very unstable and shifting structures, and in two main ways. First, every gully is steadily, though slowly, building out its windward point, viz., that towards the prevailing winds, on exactly the principle described above for the free ends of beaches, and is cutting away its leeward point. Thus the gully is moving slowly along the coast in the direction of the prevailing wind, and its movement is accompanied by the 2> BULLETIN OF THE NATURAL HISTORY SOCIETY. local movement of sand landward as above described. Thus, in a general way, the entire line of beach from headland to head- land is in time worked over by gullies and moved a little landward. Second, local changes of various sorts, notably the backward erosion of the soft sandstone headlands, may cause local planing of the beach to such an extent that new gullies may break through at irregular places, with a marked result upon the inward move- ment of the beach at that point. These gullies do, in fact, break through with relative frequency. A considerable propor- tion, I should say at least one-fourth, of the gullies on the coast are now in markedly different positions from those shown on- the early plans of the coast, few of which antedate a century back; and their present positions, the visible traces of the older gullies, and the memory of the older residents all show that these changes are not the gradual movement of the old gullies but the breaking out of new ones. One can readily distinguish the position of old gullies by traces of the old incurving beach lines. It may happen at times that two gullies are formed at moderate distances apart, and when this occurs in conjunction with a large lagoon, they may co-operate to form an inner line of shoals and islands, which later becomes the foundation of a beach, the older beach outside being gradually cut away and reduced to a bar. It is possible that in this way originated the great bar outside of Fox Island, and perhaps others elsewhere.* It thus seems plain that while the beaches as individual units grow only outwards, as a whole they are steadily moving inwards, following the retreating coast line. Originally, and of course post-glacially, they no doubt formed against the margin of the flat upland as ordinary shore beaches. But the steadily- progressing subsidence carried the land beneath the sea faster than the beaches, whose rate of inward movement is largely determined by the rate of erosion of the protecting headlands, *1 have made attempts to trace the movements of the gullies and beaches through old plaus and ancient maps, but have been able to derive little therefrom on account of their sketchy and inaccurate character. One can find support for very great and inter- esting changes in these beaches from the maps of Jumeau, 1685, DeMeulles, 1686, and L'Hermitte, 1727, (all given in Transactions of the Royal Society of Canada, III, 1896, ii, 368, 369, 372), but I am convinced that these maps are too unreliable for any scientific use. NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 29 could follow; hence the lagoons were formed. The coast is still sinking, and the beaches are still travelling inward, the sum total of the factors concerned giving us the conditions of the present day. It is thus seen that these beaches are remarkably mobile structures, and certainly they are among the most living and interesting of geographical features. 109. — The Height of the Highest New Brunswick Water- fall. Read November 5, 1907. It is commonly believed by those having interest in such matters that the waterfall on Fall Brook, Miramichi, is the highest in New Brunswick. But the evidence is conflicting. Sir James Alexander, who was the first to mention it, estimated its height as sixty to seventy feet (L’Acadie, 1849, II., 225), and his opinion is of value, since he was a surveyor. I have been told by one of the Miramichi lumbermen, repeating no doubt a statement current among them, that it is ninety feet high. The Geological Survey map gives it as one hundred and twenty feet. All of these figures are obviously estimations, and apparently no measurement has yet been made. In September last I made aij attempt to measure it with precision. I was prepared with two methods. By the first I sought to find the height directly by lowering a weighted line from the brink above to the pool below, but it ended in failure and disaster to the apparatus. By the second I applied triangulation to the problem. With the aid of my companion, Professor A. H. Pierce, I measured a base line on the level of the pool, but some distance away, and from both ends took the angle of the brink by means of an altazimuth supported on a tripod. The results when worked out gave a few inches over seventy-five feet. This, however, is the height of the fall visible from below. Immediately above, though invisible from below, and separated from one another and from the main fall by intervals of a few yards, are three other leaps which make together about twenty- two feet. The 30 bulletin of the natural history society. entire fall therefore must be somewhat under one hundred feet. Since, however. Hay’s Falls, below Woodstock, is probably more than eighty feet, it is necessary to include the part of the Miramiehi Fall not visible from below in order to make it the highest in the province. Its height is, however, not the only recommendation of this fall to our attention, for it is remarkably beautiful as well, es- pecially when seen at high water. It is not truly vertical, but runs in a symmetrical sheet down the very steep face of a great cliff, against the ledges of which it is dashed to the finest veil of fleecy lace, while all the surroundings are strikingly wild and fine. It is about fifteen miles above Boiestown, but very easily accessible from the Miramiehi by a path less than a quarter of a mile in length. 110. — On the Occurrence of the Wolf in New Brunswick. Read November 5* 1907. Conflicting statements are current as to the occurrence, past and present, of the Wolf in New Brunswick, and therefore it is desirable to bring together the available evidence upon the subject. The species in question is the Gray, alias Timber, Wolf, ( Canis occidentalism , the only one of Eastern North America. Evidence upon this subject may be derived from four sources, namely, — from contemporary accounts, from government records of bounties paid for their destruction, from the studies of naturalists upon the subject, and from the testimony of trappers and other woodsmen. First we consider the contemporary records. The earliest known mention of the wolf in connection with New Bruns- wick* is found in a list of furs exported from Saint John between 1764 and * Negative evidence has some value, and it is worth noting that the Wolf is not men- tioned by Lescarbot in his enumeration of the animals of Acadia in 1609, nor in any of the Jesuit Relations on Acadia, nor by Nicolas Denys in his Natural History of Acadia in 1672, nor by John Gyles in his account of the animals hunted by the Indians of the River Saint John in 1680-1690, nor by LeClercq in his account of the animals hunted by the Micmacs in 1691, nor by Diereville in his account of the animals of Acadia in 1713,. nor by any other writer of the French Period so far as I can find. Nor are they mentioned in connection with the settlement of the Loyalists so far as I can recall. NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 3 1 1774, which includes two skins of “Nova Scotia Wolf.” (Raymond in the New Brunswick Magazine, I, 18, and History of the River Saint John, 182). In the year 1792 the Legislature of New Brunswick established a bounty upon wolves and the preamble to the act reads, — “Whereas many losses have been suffered by sundry Inhabitants of this Province from the destruc- tion of their Sheep by Wolves” ( Statutes of New Brunswick, 1786-1836, 97). This thoroughly establishes their occurrence at that time, and shows that Gesner was mistaken when he said ( New Brunswick, 358) that prior to 1818 a wolf had not been seen in New Brunswick. In 1825 the wolf is recorded among the animals of the Province in one of the most accurate of New Brunswick books, — Fisher’s Sketches of New Brunswick, 8). But it is omitted from the excellent list given in 1832 by Cooney ( History of Northern New Brunswick and Gaspe, 231). In 1836-37 it is given as “now but seldom seen” in another accurate work ( Notitia of New Brunswick, 25). In the winter of 1841-42 Gesner heard them howling nightly on Eel River in Carleton County (New Brunswick, 171), and the same winter, apparently, he saw a pack of eleven on Eel River Lake (Ibid., 358). In 1844 wolves prowled around the camp of Sir James Alexander, near the New Canaan (Washademoac) River (his L’Acadie, II, 151), and, later in the same year, one of his colleagues on a survey was nearly destroyed by a pack of wolves, apparently near Grand Falls (Ibid., 238). In the winter of 1844-45, they became very destructive to sheep at Sussex and at Mus- quash ( L’Acadie , II, 151, and contemporary newspapers cited by Clarence Ward in the Saint John Globe, December 20, 1905). It was probably in the same winter, and certainly not long prior to 1846, that a large pack of wolves appeared on the Lepreau River, and, by an ingenious device, some fifteen of them were trapped (Levinge, Echoes from the Backwoods, I, 146). In 1846, Lieutenant Colonel Baird saw tracks of a wolf, and heard them howling at night upon Eel River, Carleton County (Seventy Years of New Brunswick Life, 149-150). In 1864, Dashwood found the tracks of wolves, in the snow, following a herd of caribou, near the Little Southwest Miramichi Lake (Chi ploquorgan , 113-137)*. It was probably somewhere about this time, though no date is given, that Rowan heard them howling beside “a lake in New Brunswick”' (Emigrant and Sportsman in Canada, 344).** *Without at all Questioning the correctness of Dashwood’s indentification of these- tracks, it should be added that evidence from tracks alone may be misleading. Mr. tY. H. Moore, in his article later-quoted, gives an instance of this. \\ hen hunting with his brother, Adam Moore, in Northern New Brunswick, one winter, they came upon large tracks, which they thought might be those of a wolf, following a herd of caribou. They followed the animal and found it was a fox! **While this paper is in press, I have heard from Mr. Rowan, who tells me he heard' the wolves on the Nepisiguit in 1866. 32 BILLETIN' OF THE NATURAL HISTORY SOCIETY. These are the latest contemporary records of its occurrence in New Brunswick that I have been able to find. In 1873 A. Leith Adams recorded the wolf as “found in the northern parts only” ( Field and Forest Rambles , 295), but since he neither mentions it in his full descriptions of the Mammals of the Province; nor marks it upon the map showing their distribution, it is evident that it was then practically, if not actually, extinct, and his inclusion of it in his list was not based on his own knowledge, but was merely suppositive. In 1900 Mr. George A. Boardman’s List of the Animals of the Saint Croix Region was published ( The Naturalist of the Saint Croix, 320) and the wolf is given as common. This list, however, is simply Mr. Boardman’s summary of all the animals he had known to occur in that region during his long life, and is not meant to imply that the wolf occurred on the Saint Croix at that date, which it certainly did not. From time to time the New Brunswick newspapers report the reappear- ance of the wolf in their news columns, but invariably these reports fail of confirmation. In December, 1905, especially abundant and circumstantial reports of the appearance of wolves in Charlotte County appeared in the newspapers, but not only have these failed of confirmation, but it was con- fessed in the paper which started them ( Saint Croix Courier, January 11, 1906) that the report originated in a story told in joke! Turning now to the records of bounties paid by the local GoYernment for the destruction of wolves, obviously an important and authentic source of information upon their occurrence. I learn from Mr. G. X. Babbitt, Deputy Receiver General of New Brunswick, that an act establishing a bounty of three dollars for each wolf destroyed was in force from 1858 to 1870. but that the last bounties paid thereunder were for three killed in 1S62. We consider next the conclusions reached by naturalists who have studied the subject. The first to write on the occurrence of the wolf was Gesner, who originated the still-current statement that wolves first entered New Brunswick, fol- lowing the deer, in 1818 ( New Brunsuick, 358). As shown above, this is an error, for there is evidence that both wolf and deer occurred in the province at an earlier date. It is also a common belief that the wolf followed the deer from the Province between 1850 and 1S60. The fact that the deer are now again increasing in numbers keeps alive a popular expectation that wolves may at any time reappear in the Province. In his catalogue of the Mammals of New Brunswick, published by this Society in 1884, (Bulletin III, 37), by far the best which has yet appeared, NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 3& Mr. Chamberlain states that the wolf was “common from about 1840 until about 1860; since then, it has entirely disappeared.” In his Notes on Mammals from New Brunswick (in Bulletin of the American Museum of Natural History » VI, 1894, 105), Mr. J. A. Allen writes: “Mr. Rowley (an expert collector of animals who had worked on the Tobique), informs me that the gray Wolf has been, so far as he could learn from extended inquiries, quite extinct in this region for many years. Even one of the oldest Indian trappers he had met had never seen one.” In one of his valuable little articles upon New Brunswick Mammals, which have been appearing in the Montreal Family Herald and Weekly Star, (and which deserve a far more prominent and permanent publication), Mr. W. H. Moore of Scotch Lake, as a result of his inquiries into the subject, states that the last wolf in that part of New Brunswick was killed in 1854.. We consider finally the testimony of men who have known the New Brunswick woods for a long time, as trappers, guides or fur-dealers. I have written to several of the more promi- nent of these, and they have replied as follows : Mr. Manley Hardy, of Brewer, Maine, has been a life-long student of large animals, has hunted and trapped much in both Maine and New Bruns- wick, and has been a large dealer in furs. After giving me many facts about the occurrence of the wolf in Maine,* Mr. Hardy tells me that since 1865 he has bought extensively of furs from the principal dealers at Fredericton, Saint John, Bathurst, Campbellton and elsewhere, but among all the furs from New Brunswick he has received only one wolf skin, which he had reason to believe came from Labrador, as it was accompanied by one of a white fox. Mr. J. A. Williams, of the Tobique River, who has been a trapper and lias a wide knowledge of New Brunswick animals, tells me he has never met with a wolf, and does not know of the occurrence of any in the Province within fifty years. Mr. Henry Braithwaite, the acknowledged leader of all New Brunswick guides and trappers, whose territory lies in the very wildest part of the ^Concerning the wolf in Maine, Mr. Hardy writes in substance as follows, basing his statements mostly upon notes of his own; — Up to 1845-46 they might be called plenty. In 1853 I heard them while hunting on Union River and saw their tracks. In 1855 or 56 I saw one within eighteen miles of Bangor. In 1860 one was trapped near Mooseluck.. In 1864 two were killed in summer near an old lumber camp. Between 1870 and 1875 one was found drowned in the Union River. In 1887 I saw a track, heading west on Moosehead Lake, near Mount Kineo, and the same year wolves were said to have killed a deer. This is the last sign of a wolf of which I have heard in Maine. There is also valuable matter on wolves in Maine in Springer’s Forest Life and Forest- Trees, 1856, 109-114. It will be of interest to add here the only record I have found of their occurrence in Nova Scotia. This is in Campbell Hardy’s two fine books, which state that Wolves entered. Nova Scotia from New Brunswick about the year 1850, but did not long remain there.. ( Sporting Adventures in the New World, 1855, I, 51, and Forest Life in Acadie, 1869, 152 ) 34 BULLETIN OF THE HATURAL HISTORY SOCIETY. Province, writes me, — “As you are well aware I have followed hunting for over fifty years. I have never, seen a track nor have I ever heard a wolf.” Mr. Arthur Pringle, of Stanley, who hunts in a more northerly region than Mr. Braithwaite, and has had also an extensive experience in our woods, writes me: “I have never seen any signs of the wolf in any part of New Brunswick that I have hunted in.” Mr. W. H. Venning, of Sussex, who has been interested in New Bruns- wick animals and woods life for some seventy years and who, since 1860, has been a good deal in the interior with guides and hunters, writes me he has never met with a wolf, nor has he received any authentic evidence as to their presence. Mr. Clarence Ward, of Saint John, a well-known student of local history, especially as revealed in old newspapers, writes me that he has not found any references in old New Brunswick papers to wolves other than those cited above. But he adds that in travelling by stage from Saint John to Fredericton in December, 1857, when near Darby Gillan’s, he heard in the hills a howling which he was told by the stage driver was ' that of wolves, and was further told that two or three had lately been seen on the same road. But since then Mr. Ward has not heard of their occurrence in the Province. Dr. B. S. Thorne, of Havelock, who has had a long interest in such matters, writes me that he remembers the occurrence of wolves in that section in his youth, their destructiveness to sheep in 1842, and a great wolf hunt organized by the settlers in 1846, since which time none have ever been known in that part of the Province. An observant correspondent, Mr. I. T. Hetherington, of Jenkins, Queens County, writes me that to his knowledge wolves were very abundant in 1842, especially around Salmon Bay and Newcastle Creek, where they killed a number of sheep, and he himself, as a boy, heard their howling. He adds that a neighbor claims to have seen one about twenty years ago (viz., in 1887), while Mr. Hetherington himself saw the tracks of one on Ryder Brook in 1888. The information sent me by another correspondent, Mr. P. H. Welsh, of Fulton Brook, Queens County, differs completely from all other data I have received. He writes that some thirty-three years ago, (viz. in 1874) he saw a wolf on a lumber road on Coy Brook (a branch of Salmon River), that the same winter he saw two others, of which he shot one through the shoulders, that in the same winter he saw the tracks of seven wolves chasing caribou on the Snowshoe Barren between Canaan and Lake Stream, and that as late as 1901 he saw one about two miles from his home. Taking this and Mr. Hetherington’s statement together, it seems possible that the wolf lingered in the .Salmon River region later than in Northern New Bruns- wick, but it is surprising that no other record of such persistence seems to •exist NATURAL HISTORY AHD PHYSIOGRAPHY OF NEW BRUNSWICK. 35 Summarizing now all the available evidence, and remembering that the Wolf is a conspicuous and dreaded animal whose pre- sence is always promptly made known, it seems clear that it has ever been of sporadic appearance and irregular abundance in New Brunswick. It must have been rare, if not absent, during the earlier periods of our history; it came into some notice about 1774, again about 1795, again after 1818, while about 1840 it became somewhat abundant, reaching its culmination about 1845-46. After this it steadily diminished in numbers until, in 1867, it had become practically extinct throughout most of the Province, though it may possibly have persisted until much later in the Salmon River region in Queens County, and a stray individual may even have entered the Province elsewhere. There is one other reference to the Wolf in New Brunswick which is of a different character. President Roosevelt, in an article in Everybody’s Magazine for June last, condemned, and very correctly, as impossible and absurd, the central idea in one of Mr. C. G. D. Roberts’ stories dealing with Wolves and Lynxes. In an interview given to a newspaper reporter in New York on June 15, and published in a number of newspapers the next day, Mr. Roberts defended his story and added that “he wrote of the animals of New Brunswick (viz. Wolves and Lvnxes) ■with the habits of which I am thoroughly familiar. The facts are based on long and careful observations.” The evidence above given shows that the Wolf had vanished, except as an excessively rare, if not doubtful, constituent of our fauna, before 1867. Mr. Roberts was born in 1860. 111. — On the Fundamental Construction of the Central Highlands of*New Brunswick. Read December 3, 1907. A year ago I laid before this Society a description, based in part upon earlier Notes and in part upon new studies, of the Central Plateau of New Brunswick, the nucelar-axial and most striking part of the Central Highlands of the Province. I reserve the paper until after further study, but I wish to state 36 bulletin of the natural history society. in brief the conclusion to which the data point as to the mode of origin of both Plateau and Highlands. I desire to make this- statement now because I find that in my earlier notes I h^ve been laying too much stress upon the factor of primary erosion, (viz. erosion of the primitive slopes of the country), as a factor in modelling this complex central mass. The more striking facts to be explained include, — (a) the existence of a great irregu- lar highland mass running northeast through the north central part of the Province, (b) the presence of an axial plateau, with outlying minor plateaus, parallel ridges and groups of isolated conical hills, (c) the dissection of the mass by valleys which sometimes cut clear across it, sometimes run parallel with it,, sometimes radiate from it, (d) the presence of slopes, from central plateau to bordering plains, of escarpment-like steepness, and (e) a great complication of granites, felsites, schists and even of conglomerates, all bearing little relation to details of the actual topography. The explanation of the topography of the region, is found simply in this, that the Highlands are primarily a series of gigantic, parallel, intrusive, abrupt-sided but sloping ended,, ridges or dikes, here and there completely interrupted, greatest and most regular in the centre, vrhere they are planed to flat tops, and lowest and most irregular around the margins; these- ridges were anciently forced up among much softer rocks which in part they have hardened to schist but in part have permitted to be removed by erosion, thus letting the eroding streams settle down in the intermediate soft hollows, leaving the hard rocks in relief as the highlands. As I shall later show, some of the most puzzling details of the topography thus find a satisfactory solution. 112.— On the Psychological Basis of New Brunswick Sea- SERPENTS. Read December 3, 1907. The progress of science finds its greatest obstacle in the imperfections of the mind of man. Our innate proneness to- belief in mysteries and wonders, our preference for pleasant fiction over commonplace fact, our habit of turning everything. NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 37 to self justification or self-magnification, all tend to warp the judgment from the objective towards the subjective. We can- not, however, reject all reported wonders as untrue, for while most of them are false a few are not; science must examine all, to determine whether they have a real existence, or are simply imaginings born from the credulity of ignorant men or the men- dacity of cultured ones. Credulity may evolve wonders either by an exaggeration of a real phenomenon, as in the case of the Fire Ship of Caraquet (Note 92), or by forcing real phenomena into support of a pre-conceived notion, as in the myths of the Sea-serpent. Some of the reports of New Brunswick Sea-serpents have a perfectly genuine basis in all but name, that being adopted for reasons more or less humorous. Thus, for the past few summers, the local papers have often reported the appearances of the 11 Sea-serpent ’ ’ at Passamaquoddy and the Saint Croix The animal is really there, but it is, according to the testimony of observant persons, a White Whale, an animal very rare in these waters, though abundant in the Gulf of Saint Lawrence. Locally it is stated that it came into the Bay with the war-ships taking part in the Champlain celebration, June 25, 1905. But in this belief we have nothing but an illustration of another wonder- tendency, viz., the habit of linking together, as casually con- nected, prominent events which are merely (or only approximately) contemporaneous ; for data in my possession show that this animal was seen in the bay at least one season before 1905. But of Sea-serpent myths of the more usual type, three cases have come under my notice. The first is the locally well-known Monster of Lake Utopia, of which more is below. The second is probably but an echo thereof, for Dr. J. Orne Green tells me there is locally a shadowy belief in the former presence of a Sea-serpent in Oromocto Lake. The third is the locally-celebrated case reported by the late Mr. Eben Hall, of Saint Stephen, who as a young man saw a strange monster on some of the lakes of Maine, upon which he gave lectures and often discoursed, all in perfect good faith. 38 BULLETIN OF THE NATURAL HISTORY SOCIETY. Returning now to the Monster of Lake Utopia, we possess a contemporary record of great interest in A. Leith Adams' Field and Forest Rambles, page 56; Adams found, in 1867, large baited hooks set by the residents around this lake for the capture of the monster. He traced the evidence for its occurrence to a strange disturbance observed a short time before in the calm waters of the lake, a disturbance he explained as due to some such natural causes as the opening of sub-aqueous fissures, or else shoals of small fishes, or else tiny squalls from the neigh- boring hills. He also mentions that the track of some huge animal was claimed to have been traced from the sea to the lake some thirty years before.* With these matters in mind I have been on the lookout for some years past, during my trips on New Brunswick waters, for appearances which might sustain a Sea-serpent pre-concep- tion, and I have noticed these. In lakes long dammed for lum- bering purposes the marginal trees are killed, fall over, and float around half water-logged. When the waves roll these over, their irregular shapes, dark slimy surfaces, and occasional projecting roots make them resemble somewhat a long slender animal moving in the water. Again, on the mud bottoms of our northern lakes, one often sees long sinuous troughs of serpentine suggestion, really made by moose, which wallow there for hours together on warm summer days (compare the “ furrows in the sand” of the accompanying footnote). More serpent-suggestive still are the beaver paths made by those animals from one pond to another, — naked paths rounded in contour and winding close to the ground through overhanging , ]: li *As illustration of the local tales about this Monster, I copy the following from my note-book of the year 1891. Mr. McCartney, an observant and well-informed resident of Red Rock, Charlotte County, said that some twenty years ago he often saw the Monster of Lake Utopia while lumbering there; it was dark red in color, the part showing above water was twenty< feet long (about) and as big around as a small hogshead ; it had two large flapping affairs like fins; no head was ever shown; it was much like a large eel; it never let anyone get near it but was often seen by lumbermen from the shore; he had seen it many times with his own eyes; he had also seen or heard of great furrows in the sand which it had made; it disappeared about eighteen years ago and has not since been heard of by anyone. NATURAL HISTORY AND PHYSIOGRAPHY OF NEW BRUNSWICK. 39 vegetation. Also I think the ancient Indian portage trails, in which the hollowed path persists long after it has been over- arched by vegetation, would give the same impression. And I venture to think the old serpent path from the sea to Lake Utopia, mentioned by Adams, was simply the important old Indian trail which we know existed between the Lake and the Letang River. If the reader will spread before him a modern map of New Brunswick,, and will fix his attention upon all the boundary lines shown thereon he will be impressed by the irregularity of the network the boundaries make, and by the seeming lawlessness of most of their courses. Close observation will show that a few of the lines coincide with natural features of the country, such as sea-coast and rivers; but the great majority have no such deter- minants, and are obviously entirely artificial. Every one versed in the history of this Province will readily recall that some of these boundaries have been subjects of serious international contentions, have exhausted the powers of the highest diplomacy, and have brought great nations within sight of war. A few are old, and interwoven with the earlier periods of our history, while others have had experiences sufficiently remarkable or curious. Al- together, it is unlikely that any other country of equal size has had its boundaries so often or conspicuously in contention, so fully discussed by many and weighty commissions, so closely interlocked with its general history, or determined by so many distinct considerations as has the Province of New Brunswick. — W F. Ganong, Preface to the Evolution of Boundaries of New Brunswick. Trans. R. S. C., Vol. vii, 1901. ARTICLE III. THE FUNGI OF NEW BRUNSWICK. Bv G. U. Hay. The seasons of 1906 and 1907 were widely different in their relative productiveness of fungi. The late summer and autumn of 1906 were very dry and, in consequence, the out-growths of these moisture-loving plants were much less abundant than usual, many familiar forms being entirely absent. The abnor- mally wet season of 1907 produced an abundant and varied crop, beginning early in July and extending to late in the season. The woods and fields, literally speaking, were full of them. Repeated rains and a continuous moisture-laden atmosphere brought successive growths of spore-bearing forms that seemed toward the end of the season to exhaust the supporting mycelia; or, perhaps, the paucity of forms then may have been the result of early frosts which played havoc among growths more water- soaked and less hardy and persistent than usual. Especially abundant were the slime moulds or Myxomycetes forms, which revel under extremely damp conditions. Many of the species in the subjoined list belong to this class. Others were found which, owing to their tendency to speedy decay and the insuffi- ciency of literature on the subject, were not satisfactorily determined. The Boleti, a genus allied to the Polypori but mushroom-like in form and habit, were very abundant throughout the season. Some of these, as the Boletus edulis and kindred species, have the reputation of being good for food; others, like the Boletus luridus, which change colour quickly on being bruised or broken, are looked upon as poisonous. The doubtful appearance of the greater part of the members of this group, and the masses of grubs which infest them, warn the fungus-eater to avoid them et hoc genus omne. The Cortinarii, probably the most interesting in their varied colors and forms, certainly the most abundant of the larger 40 THE FUNGI OF NEW BRUNSWICK. 41 fungi found in the woods of our northern latitudes, were excep- tionally plentiful during the season. The rich violet and purple colorings of several species of this group add very attractive tints to the floor of our woods during the months of September and October. Their abundance and beauty constitute their principal claim to recognition. They are not regarded as mush- room delicacies. The brilliancy of coloring and abundance of the Russulas made them also an attractive feature of our wood- lands during the season, while the picturesque fly-agaric ( Amanita muscaria), from its size, commonness and flaunting colors, drew upon it the attention of the least observant. Nearly all Amanitas and several of the Russulas are poisonous and should be avoided. Strange to say, there was an unusual scarcity during the past season, in places where I have been accustomed to find them, of the two most common and prized edible forms — the common mushroom ( Agaricus campestris ) and the shaggy-mane mushroom ( Coprinus comatus). When I wished to obtain these for illustrations, on the first of October, I could not find them in the St. John market or in the haunts near the city, where I had been accustomed to observe them. The same was true of the “fairy-ring” mushroom ( Marasmius oreades). But this was not the case by any means with other edible mushrooms not so well known as the two mentioned above, but which should be well-known on account of their abundance and excellence. As I have referred to these in previous papers in the Bulletin , I need only make a reference to them here. During the past season the Lactarius deliciosus (it is a matter of regret that this and other species here mentioned have no common names) which, to coin an English name, may be called the Delicious Eactar, has been unusually abundant. It is certainly delicious when properly cooked and has long been regarded by many as the chief of edible mushrooms. From frequent tests of its appetizing flavor I have no hesitation in agreeing with this opinion. Cantharellus cibarius, known as the Chantarelle, is a mushroom of wide distribution in temperate latitudes. Its symmetrical tapering form, rich chrome yellow color, and blunt wrinkled gills make it easily recognized. It 4'2 bulletin of the natural history society. grows in fields and woods and is known as one of our most palatable mushrooms. This beautiful plant, as well as the little mitrula (Mitral a vitellina var irregularis), which is found in moss along roadsides and in evergreen woods, were very abundant during the months of September and early in October. The latter plant, about the size of a lady’s thumb, or less, is of a rich yellow color and is of a very attractive appearance as it rises from the green mosses amid fir and spruce trees. Eaten raw or cooked, its pleasant nutlike flavor makes it delicious as a salad during the autumn months until heavy frosts render it insipid. Other noteworthy forms, not so grateful to the taste as the above, were Cantharellus umbonatus, a beautiful little plant having a steel-blue cap with a conical boss rising from the centre, the puff-balls, clavarias, and a few others not so delicately flavored but fairly good eating, on a pinch. If people, both in country and city, would take the trouble to become acquainted with about a dozen species of our edible mushrooms, and learn how to serve them up as palatable dishes, there would be wholesome dainties added to the tables of many households. The writer is indebted to Mr. C. G. Lloyd, of Cincinnati, for his kindly courtesy and assistance in determining many of the species found in the following list. Additions to Previous Lists. Agaricus diminutivus Peck. Small; Pileus depressed; reddish. Tricholoma decorosum Peck. Covered with brown tomentose scales. Clitocybe ochrapurpureum Berk. With purple gills. Collybia dryophila Bull. Pileus grey or tan-colored. Hygrophorus conicus Fr. Hygrophorus chlorophanus Fr. Lactarius turpis Fr. Gills crowded, forked; milk acrid. Lactarius flexuosus Fr. Russula pectinata Fr. Pileus toast-brown. Russula puellaris Fr var intensior Cooke. Centre of pileus black. Russula furcata Fr. Pileus green. Russula depallens Pers. Pileus pallid brown. Entoloma rhodopolium Fr. Pileus grayish, shining. Stropharia semiglobata Batsch. Boletus elbensis Peck. Pileus brown, viscid. Polyporus adustus Fr. Pileus smoky-black on the margin. Hydnum caput-ursi Fr. Spines nearly one inch long. A beautiful plant- Stereum tabascinum Fr. THE FUNGI OF NEW BRUNSWICK. 4 3 Clavaria fumosa Pers. Smoky in color. Ill smelling. Lycoperdon cepaeforme Bull. Trametes abietinus. On dead fir. Lycoperdon Wrightii (?) [I judge it is what Morgan has taken for h. Wrightii.— C.G.L.] Helvella lacunosa Apzel. Cap thin, black. Helotium citrina. Thelephora terrestris Ehrb. Peziza acetabulum Linn. Greyish-white when fresh, becoming black on drying. Peziza badia Pers. Of a rich brown color. Somewhat transparent. Fuligo septica. The Fuligoes are the largest slime moulds. Fuligo ochracea Peck. Pilacre Petersii Engler & Prantt. (Having only conidial spores). Lycologa epidendrum. (Resembling a puff ball, but belonging to the Myxomycetes) . Corticium amorphum Fr. Corias spongiosa (fide Patouillard). Leotia lubrica Pers. Cap olive-yellow, slimy. Leotia chlorocephala Schweinitz. Cap greenish, slimy. Plants previously reported 286 Additions named above 35 Total 321 SFf | The distrust and suspicion with which many of the fungi are looked upon show that more attention should be given to them, to educate popular opinion in favor of a class of plants that have been much abused and maligned. The presence of vast numbers of toadstools of every form and color in our woods and fields every year, especially in September and October , is a source of curiosity to those people who kick them over and desire of you the information whether such and such a plant is a “mushroom” or a “toadstool.” Some there may be who, naturally observant, have found in the despised toadstool a beautiful and complicated structure. They recognize among the higher fungi an agaric by its gills, a polyporus or boletus by its pores, a hydnum by its spines, a morel by the fluted folds of its cap,, or a puff-ball by its spherical or balloon-like shape. But you may count on the fingers of one hand probably those in Canada, outside of the Natural History Survey, who have attempted the serious study of the higher fungi , while still fewer have attempted the “Imperfect Fungi,” as they are termed, which are so destructive as parasites on cultivated plants. — G. U. Hay \The Study of Canadian Fungi. Trans. R. S. C. Vol. x, p. 139. ARTICLE IV. OBSERVATIONS ON WEATHER AND PLANTS, 1907. By G. U. Hay. March 30. — Cold, clear weather throughout the month with abundance of snow. There has been good sleighing all winter with the exception of a short interruption about the last of De- cember, 1906, which month was generally fine with clear, frosty weather. March ‘20th the worst snow storm of the season occurred, accompanied with high winds which caused huge drifts. The sun and fog of succeeding days caused the snow to disappear rapidly. Good Friday (March 29) was a fine warm day with clear skies — like a day in June, except for the slush on the streets. Beautiful weather continued for several days. April was ushered in by a snowstorm which continued throughout the first day of the month and the following night, making snow sufficient for sleighing up to the 5th. There were cold rains and frequent snow flurries during the month with a considerable depth of snow in the woods and in sheltered places. Wild Garden at Ingleside. During May and June the weather continued cold and back- ward and with few bright sunny days during May, except the 26th and 27th. Frequent frosts. Farming operations began about the middle of the month and were pushed on steadily in spite of comfortless days and frosty nights May 19. — A few white violets observed with fawn lilies, (adder’s-tongue) beginning to appear in sheltered places. May- flowers and hepaticas in full bloom. May 24. — A few blue violets to be seen, with strawberry plants, bluets, dandelions in flower. May 27. — Painted and purple trilliums and the white tril- lium (not native) in bloom. Flowers of red maple which have been in bloom for nearly two weeks beginning to fall, and hepati- has dropping their petals. Cloudy weather and rains during the last days of May. 44 OBSERVATIONS ON WEATHER AND PLANTS. 45 June opened with a few fine days followed by cold easterly winds and cloudy weather. From the 12th to the 15th it was warm and generally fair. June 8. — Amelanchiers in full bloom, and the wild red cherry beginning to unfold its petals in sunny places. June 12.— Elder in bloom, striped trillium and moose wood in woods, and strawberry and dandelions brightening the fields everywhere. Crab apple trees in full bloom. A few buttercups, with blue-eyed grass, red clover, and rhodoras appearing. June 16. — Stemless ladies’ slippers, bunch berries, apple trees in bloom, and blossoms of the blue berry appearing. June 20. — White and purple lilacs opening; foreign lilacs still in bud. These began to open on the 26th and continued in flower for a fortnight or more. Pinguicula coming in bloom on the 29th. The weather continued wet during July with a few fine warm days (17th-20th) but generally cool, especially at night. Haying which usually begins about the 20th was deferred until August. July 2. — A few ripe wild strawberries were picked. On the 6th they were fairly plentiful. The cultivated forms continued to appear in great abundance from July 12th to the first of August. August 8. — A week of August has gone and still no hay has been harvested, beyond a few scattered loads in poor condition. The days for the past fortnight were not clear except for a few hours at a time. Rains have been frequent. The river St. John has been phenomenally high and intervales along its course have been under water. September, usually a fine season, was one of our most cheer- less months. The first week was one of intermittent rains with scarcely any sunshine. The marsh hay crop was nearly ruined with poor prospect for oats and other crops. There were frosts on the nights of Sept. 12th and 13th, and a severe frost on the night of the 18th. Heavy rains at intervals from September 21st to October 10th made harvesting a matter of considerable difficulty. ARTICLE V. MEMORIAL SKETCH OF THE LATE JOHN MOSER. By G. U. Hay. A tall venerable-looking man, with form somewhat bent from age but with elastic step and cheeks ruddy with the glow of outdoor exercise, used occasionally to walk into our rooms bringing with him a package of mosses or fungi. This was John Moser, who died recently at his home near Havelock, N. B., in the eighty-first year of his age. Mr. Moser was of a retiring disposition, of simple and unobtrusive manners and a reverent student of nature. His holidays and many leisure hours, for he was a country school teacher, was devoted to walks through by-paths, glens and woods where he had trained his eye to observe, in addition to the flowering plants, those lowly but beautiful forms of mosses, lichens and fungi. It was his especial delight to study -the mosses, and though not possessed .of a microscope or many books on the subject, he was enabled by his quick eye and a remarkably intuitive perception of differences of structure to detect several hundred different species of New Brunswick mosses, more than a dozen of which are new to science, having been determined by the great Swedish bryologist, Kindberg, and other specialists. Unfortunately many of his specimens were rather crudely prepared and mounted, but their generous abundance makes up in a measure for their lack of beauty on herbarium sheets. A list of mosses discovered by him was pub- lished in the Bulletin of the Natural History Society of New Brunswick, volume IV, number 16, pp. 23-31. Shortly afterwards a collection embracing all the mosses collected by Mr. Moser and noted in the catalogue, was presented by him to our society and placed in the herbarium where it will serve for future refer- ence by students, and remain as a memorial of a quiet but discerning and industrious nature student. 46 ARTICLE VI. PHENOMENA OF THE TIDES AT INDIANTOWN. By D. Leavitt Hutchinson, Director St. John Observatory. In the Autumn of 1907 a Richards recording tide gauge, with the necessary appliances and protection, was installed on the face of wharf adjoining the ferry slip at Indiantown. This type of gauge gives a continuous record of the tide from high to low and low to high, the curve being traced on a paper diagram placed on the cylinder which is revolved once every twenty- four hours by clockwork inside the cylinder. The pencil carrier, being connected by suitable gear, is moved up and down in accordance with the movement of the float. The diagrams used in these observations were scaled 0.50 of an inch to the foot. The purpose of installing this gauge was to determine the differ- ence in time of high and low water compared with the Kelvin recording tide gauge which the Tidal and Current Survey have had in operation at Reed’s Point, St. John Harbor, for many years, also to measure the tidal range at Indiantown. The following table is the result of nearly one month’s ob- servation,and shows by comparison the difference in time between high and low water at Indiantown and in St. John Harbor, also the range of tide at Indiantown. 47 COMPARISON BETWEEN THE INDIANTOWN AND ST. JOHN HARBOR TIDES. 4S BULLETIN OF THE NATURAL. HISTORY SOCIETY. Range of Tide at Indiantown in feet and decimals of foot. Aft’noon ■ LOO ■ O O O CO iC • • C lO O O •O'OO'OOCJ •C©0 •©ICOCOt'-Tji • • »© X »© ©4 ■ © O h O) O h oo ■ © c© ■ N O lO o X W 'lOiOXCtONXSOONiO -HHOINHCQ •CO^N'1i(NO©HOffi© •jajeAV mot; S UMOJUBipUJ coc -re • O *© C O '0000^0 -co • •»©©©■ © hh . t-h .hONh 'CtHHfNCt • T-H • •COINO ©4 ©1 ■ ©4 • ©4 ©4 ©4 ©4 • ©4 ©4 ©4 ©4 ©4 • ©I • • ©4 ©1 ©4 Afternoon, Low Water. ! Indian- town. h. m. O© •© •©©©© • © i© © t"— © •’—i • ■©»©>© CO •© • t-h ©4 1© Tjl • ©4 X ©4 t-h l© -CO • 'HCOH 4> X • © • ©4 X Tt- »© -XX©©© • ©4 • • X X St.John Harbor. h. m. i>- o • r- -©»©©o • ©4 1© »© »© © • >© • 'ifj»©i© CO ©4 • • © T— • CO CO • i© ©4 © i© X • t-h • -COHr-t »© © • i> • ©4 t-h ©4 x • i© © i> go . © . - i— i <©ci *J3;bt -rai^AX. mot g UMO^UBipUJ •©i© • x »© © x © © -x©4©x©x©i©©x© • ©1 © • ©4 ^h X h}h ©4 • ©t CO ©4 CO ©4 CO CO t-h CO i-H ©I ■ ©1 ©) • ©4 ©4 ©4 ©4 ©1 ©4 • ©4 ©4 ©4 ©4 ©4 ©4 ©4 ©4 ©4 ©4 ©4 Morning, Low Water. Indian- town. h. m. • © i© • i© © t© © © c© -©4>-©©©©©»©©X© •CO© • ^ C ©4 M Tf © ■ CO « © Tt r- IHOCOCOH©4 •X© • © ©4 X ^ *0 CO ■XO©©H©4HH©4CO't St.John Harbor. h. m. • © © ■ ^ © ©4 o o -r^io©r>-©i>©©©©© • h © • T-H Tf Ttt co © Ttt •©•T,CO©LOCOCO©4©©© •©r» -XtH ©rHXM •©©I>QOOO©©'-h©'-h©4 U3}BT -i3|BAV q3iH g UMO^UBipUI •lOlO • • X © X © •’ ■OOOOXOOIOCOO© • ^ i© • -t-tco^hC: • -©T— ii©©c©C0XXT-H©Hti- Afternoon. High Water. Indian- town. h, m. • © c© • • co i© >© © • • r- © © © x © © © © © >© • © c© . • Tf n I.C CO • • © © ©4 ©4 C© ©4 © o »© CO H • hh • ■ l>» X OS © •t-h©4©4XX‘©©I>I>Xt-h St.John Harbor. h. m. • >© © • i© »© t> © ■ N © © © © i© © © N C O •--H© • • ©4 ^ CO X • •©• x © • '©4NH(NCOCO^I©®NO J3*bt aa^BAV q3?H g UMO}UBipUI •©4 1© • © X X© © X © -©©X©X©©X©--<»0 • ‘ © 1© ■ H Tf c ©) C H • © ‘© T-H t-h 1© r-H x ©4 ©4 X Tf • © © • t-H © t-H t-H t-H t-H 'tHOHHCHHHHHO Morning High Water. Indian- town. | h. in. • © © -©©I©©'©© •OCCOOOOOXNX‘0' ■ X -* ■ H Tf o ©1 H L© • © ©4. ©4 r-(X'^l©'^©4X'Tri • © t-h • X © X © © © • ^H t-h ©4 X X 1© © I> X X t.John [arbor. h. m. •xc© • © ©4 © © t-» © • ©©©©t^©©u3i>i>© • X Hf • © c© © o © Hf •OXt-h©XX©4t— 1©©© • t-h © • (N >© N X fli C5 'OOHiNflXTjuoONoO a 2 o oo © ^ n rc -r '!■: ?c n x © o , - h - :i :i ^ ©i ©i ©i ©i co jo PHENOMENA OF THE TIDES AT INDIANTOWN . 49 When the first of the tabulated records was made (October 7th) the' high water reading on gauge was 5.90 feet; on the morning of the 9th, 6.70 feet; afternoon high of the same date, 6.90 feet. This increase of water level was due entirely to a heavy fall of rain on the 8th, when 1.42 inches was recorded between 9 a. m. and 9 p. m. After that date there was a gradual decline in the water level, the last record of high water on November 1st registering 3.25 feet on the gauge. The comparisons show that the high water at Indiantown occurs, on an average, 1 hr. 6 m. later than the St. John Harbor high, and the low at Indiantown, on an average, 2 hr. 20 m. later. During the period under observation the minimum time of delay of high water at Indiantown was 0 hr. 45 m., the maximum 1 hr. 35 m. For the low tide, the minimum was 2 hr. and the maximum 2 hr. 40 m. The average range was 1.30 feet; the greatest range 1.73 feet and the least 0.65 feet. The Indiantown tide rises faster than it falls. On an average one hour and a quarter less time elapses from low to high water than between high and low water. This, possibly, to a less extent, is a phenomenon of all tidal rivers. While Indiantown is less than a mile distant from St. John Harbor, the rising tide must flow through the narrow gorge at the falls and reach the level of the basin above before its effect becomes noticeable on the Indiantown gauge. The tidal current continues running up river after high water and until mean water level has been reached with the falling tide. The ebbing current down stream continues flowing until the following high water in the Harbor has again brought the water to its mean level in the Indiantown basin. It is proposed that a more prolonged series of observations be made at Indiantown, if possible, beginning early in the spring and carried through the summer and autumn. 50 bulletin of the natural history society. ARTICLE VII. NOTES ON NEW BRUNSWICK WEATHER FOR 1907. By D. Leavitt Hutchinson. January. — The weather of the first nine days of the month was comparatively mild, the remainder exceedingly cold. At times temperature changes occurred with marked rapidity and many days of considerably below zero readings were recorded. At St. John the lowest temperature for twenty years — 16.9 was registered on the 7th. The snowfall was not excessive and near the Bay of Fundy bare ground obtained until the 11th. Northerly winds predominated with the velocity at St. John twenty-eight hundred miles, in excess of that of the same month last year. The highest temperature 53 was recorded at Moncton and the lowest — 30 at St. Stephen. February. — A remarkably cold and stormy month. Tempera- tures below zero, at many places, were of almost daily occur- rence. Snowstorms were frequent and at times heavy. Rain fell heavily on the 21st, and was followed by a period of intensely cold weather lasting until the close of month. The depth of snow at the end of month was from thirty to sixty inches in most localities. The highest temperature, 46.2 at Grand Manan, and the lowest -33 at St. Stephen. March. — There was considerable fine, bright weather during this month, but as a rule it was quite cold, especially *during the first part of the month when temperatures below zero were recorded at intervals in all districts. Precipitation, which fell mostly snow, was below the average. At the close of month the snow covering varied from a trace in southern to upwards of two feet in northern counties. Highest temperature 56.5 at St. Stephen, lowest -34 at Woodstock. April. — Exceedingly cold and wintry weather obtained during the greater portion of the month, snowstorms occurring NOTES ON NEW BRUNSWICK WEATHER. 51 at intervals up to the 21st, the snowfall aggregating fourteen inches; after this date slightly warmer conditions prevailed, but the weather was wet and cloudy. The St. John River opened on the 27th with promise of a heavy freshet. In some localities considerable snow remained; ice was quite firm in lakes, and everywhere vegetation was remarkably backward. Highest temperature 67 at Moncton, lowest 2 at Chatham. May. — May weather was unseasonably cold. The temperature at night generally being quite low and frosts occurring occasion- ally at most places throughout the month. There was much dull weather in Southern districts, elsewhere fine weather pre- vailed. A heavy fall of snow occurred on the 11th, and vegetation in all districts was exceptionally backward. Highest temperature 76.5 at St. Stephen, lowest 25 at St. Stephen. June. — Unseasonably cool with excessive cloudiness. In Northern districts rainfall was about average but in the South it was below and occurred chiefly in scattered showers. Light frosts were noted during the first half of the month, but little damage was caused thereby. Vegetation backward. Highest temperature 94 on 23rd at Chatham and 18th at Woodstock, lowest 29 on 1st and 4th at Sussex. July. — Unusually wet and dull. Temperatures from 80 to 90 were recorded between the 16th and 20th, otherwise maxi- mums were not high. Severe thunderstorms were frequent, considerable damage being caused by lightning, and, in some places, growing crops were badly damaged by hail. • The heavy rains on the upper St. John have given this river a record height for the season. Near the Bay of Fundy fogs were recorded on from 13 to 16 days. The gale of the 28th was most severe near the Bay of Chaleur. Highest temperature 90 at Chatham, lowest 44 at St. Stephen. August. — More fine days than either of the two preceding months but without the usual warmth. There was at the same time much cold, cloudy and wet weather, although little fog. Southerly winds predominated as in the preceding month. No gales occurred but some heavy thunderstorms were reported during the first half of the month. Highest temperature 87 at Chatham, lowest 36 at Sussex. bulletin of the natural history society. 02 September. — Cool and dull. Rain fell between the 1st and 8th, and on the 12th, 17th, 21st, 25th, 29th, and 30th. The intervening periods were cloudy to fine and cool. Heavy frosts were general on the 19th. Thunderstorms on the 6th and 17th. Owing to the excessive rainfalls rivers and streams are at a record height. With the exception of the maple, foliage was quite green. Highest temperature 79 at St. Stephen, lowest 29 at St. Stephen. October. — The weather of this month was about equally divided between dull, stormy, and wet and fine days. Rain fell in small quantities at frequent intervals and heavily on the 4th, 8th, 28th, and 30th. On the latter date snow was reported from some localities. Tight frosts were frequent and about the 18th ice formed in all sections. Gales were recorded on the 4th, 8th, and 21st. That of the 8th was exceptionally heavy with a velocity of 64 miles at St. John. Highest temperature 66 at Chatham, lowest 15 at St. Stephen. November. — Exceptionally fine and comparatively mild, and, though frosts were frequent, no low temperatures were registered. Rain fell heavily on the 3rd, 7th, 10th and 25th, otherwise, November was a pleasant month with many sunny days and bright moonlight nights. Dense land fogs were fairly general on the 2nd and 23rd. Moderate southeast gales on the 3rd and 25th, and a heavy easterly gale on the 27th. The 30th was the coldest day with light local snowfalls. In northern New Bruns- wick there was a light snow covering but elsewhere only a trace here and there. Highest temperature 62 at Sussex, lowest 12 at Sussex. December. — An abnormally mild month with a light snowfall. There were short, broken periods of sleighing and at times open water in the rivers and streams. The distinctive feature was the high minimum temperatures which for some localities was considerably above any record. Heavy rainfalls on the 11th, 23rd, and 30th. Snow on the 2nd and 15th. Two fresh to heavy and three moderate gales occurred. The snow covering varied from one to three inches in northern and none in southern locali- ties. Highest temperature 57 at Moncton, lowest -6 at Sussex. 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S fn £ o S January. . February. March. . . April .... May June July August. . . September October . . November December TOTALS , 54 bulletin of the natural history society. METEOROLOGICAL ABSTRACT FOR 1907. ST. JOHN OBSERVATORY. Meteorological Service oe Canada. Latitude, 45° 16' 42" N. Longitude, 66° 3' 49.50" W. MONTHS 1907. BAROMETER. THERMOMETER. Cloudiness. 0 = Clear. 10 = Wholly Clouded. Precipitation Rain and Melted Snow. Thunder Storms. m be o Mean. Highest. m V & 0 tA Mean. Highest. 1/5