V . m-^.. yibrarji of tlj^ gtuscitm OF COMPARATIVE ZOOLOGY, AT HARVARD COLLEGE, CAMBRIDGE, MASS. JFounlJelJ bn ptfbate sutecrfptfon, fn 1861. The gift of ^AsL, /<4^Ku:.oru*i>oc/<^ No. yo^i-. ^ THE JOUE:^ AL CTISrCIN"N^TI r I Of Mliil HISIiKI P UBLTSHING COMMITTE E : A. G. WETHERBY, J. W. HALL, Jr. CHAS. DURY, L. M. HOSEA, GEO. W. HARPER. ^OL. II.-1879. cincinnati: piiintp:d by james Barclay, 269 vine street. INDEX TO yOL. II. PAGE ^aea quadricustafella 18G Jitia 186 bipiiiictellii 187 Anarsia belfrage-sflla 183 Anesychia tesanella 179 Anomalocriiius caponiforruis 109 Asajjlioiclichnus 217 dveri 219 trifidiis 218 Atactopora .» 119 hirsuta 120 maculata 121 multigranosa 122 niundula 123 septosa 125 subramosa 124 tenella 123 Beyrichia persulcata 12 Calymene nasiita 131 Chambers, V. T., Annual Address 71 Descriptions of somenew Tine- iua. with notes on a few old species 179 Illustrations of the neurations of the wings of Amer. Tineina. 194 Chsetetes compressus 27 elegans 130 granuliferus 128 irregularis 129 subglobosus 129 Cleidophorus ellipticus 25 major 25 Codaster gratiosns 257 Coleoplioni bistrigella 185 inornatella 185 Coriscium quinquestrigella 185 Crateripora 29 erect a 30 lineata 29 Cromyocrinus gracilis 248 Cyathocrinus harrisi 255 Cyclora depressa 13 Cyrtolites uitidulus 12 Dendrocrinus curtus 18 Dury, Charles, and L. R. Freeman, observations on birds 100 List of the Coleoptera observed in the vicinity of Cincinnati 162 PAGE Elachista bicristatella 187 Encrinurus egani 254 Eulyonetia 188 inornatella 188 Eupachycrinus germanus 40 spartarius 38 Fistulipora flabellata 28 Forbesiocrinus parvus 138 Freeman, L. R., observations on birds. 100 Gelechia biniinimaculella 183 obliquifiisciella 182 pinifolielli! 181 quadrimaculella 182 rfiseosuffusella 183 Glyptoerinus riehardsoni 245 Harpalycealbella 180 Heteroerinus geniculatus 16 Holocvstites baculus 105 dyeri 108 rotundas 107 subrotundus 107 tuniidus 104 turbinatus 259 ventricosus 108 Howe, H. A , three approximate solu- tions of Kepler's problem 205 Hyponomeuta texanella 180 Inocaulis arbuscula 28 James, Joseph F., catalogue of the flowering plants, ferns and fungi growing in the vicinity of Cincinnati 42 Laverna sabalella 185 Leperditia bivertex 11 crepiformis 10 radiata 9 unicornis 10 Lepidesthes formosus 41 Lepidolites 20 diokhauti 21 elongatus 22 Leptsena plicatella 15 Lichenocrinus pattersoni 118 Lithocolletis celtisella 190 desmodiella 189 IV INDEX. Lithocolletis quinquenotella 189 sexnotella 189 solidaginisella 190 Megistoorinus pileatus 114 Microceras miniitissirnuin 13 Miller, S. A., remarks upon the Kas- kaskia group, and descriptions of new species of fossils from Pulaski county, Kentucky 31 Description of 12 new fossil spe- cies, and remarks upon others. 104 North American Mesoznic and Cffinozoic Geology and Palreon- tology 140 Silurian lehnolites, with defi- nitions of new genera and spe- cies 217 North American Mesozoic and Gsenozoic Geology and Palaeon- tology continued 223 Description of two new species from the Niagara group, and five from the Keokuk group... 254 Note upon the habits of some fossil aim el ids 260 Nepticula grandisella 193 maculosella 193 Nothris bimaculella 184 citrifoliella 184 Nuculites yoldiaformis 24 ODnoe hybromella 186 Ormathichnus 222 moniliformis.. 222 Orthis sectostriata 15 Orthodesma subovale 22 Palaeaster crawfordsvillensis 250 finei 19 harrisi 117 Petalichnus 221 multipartitus 222 Phyllocnistis arnpelopsiella 191 Pisocrinusgemmiformis 113 Planorbis duryi 99 glabratus 97 Platycrinus bloomfieldensis 257 Pluteloptera 181 ochrella 181 Poteriocrinus wetherbyi 36 Proceedings of the Society 1 PAGE Pterinea mucronata '.. 24 Pterotocrinus acutus 134 bifurcatus 136 spatulatus v, 137 Reviews and Book Notices 68 Ropalonaria 26 venosa 26 Stellipora limitaris 126 Stephanoerinus osgoodeiisis 116 Stone, Ormond — On th eextra-merid- ian determination of time by means of a portable transit in- strument 211 Strotocriniis bloomfieldensis 2.58 Synbathocrinus granuliferus 250 Tellinomya cingulata 23 Teratichnus 221 confertus 221 Tinea tapetzella var. occidentella 193 Trachoma tichn us 219 cincinnatensis 220 numerosus 219 perraultus 220 Trichophycus venosum 112 Ulrich, E.O., descriptions of new gen- era and species of fossils from the lower silurian about Cin- cinnati 8 Description of a new genus and some newspecies of bryozoans. 119 Description of a trilobite from the Niagara group of Indiana.. 131 Wetherby, A. G., Remarks upon the genus Pterotocrinus 3 Notes on some new or little known North American Lim- naiida; 93 Descriptions of new species of crinoids from the Kaskaskia group of tlie subcarboniferous. 134 Note to former article 161 Descriptions of new crinoids from the Cincinnati group of the lower siluriau, and the sub- carboniferous of Kentucky 245 Zygospira concentrica 14 THE JOURNAI. ■lAIl im OF iATBEiL Bl» VOL. II. CINCINNATI, APRIL, 1879. No. 1. PROCEEDINGS OF THE SOCIETY. The Society met Jaiiuaiy 7, 1879. The President being absent, Vice-President L. S. Cotton took the chair. The minuies of the De- cember meeting were read and approved. Mr. Fred. Braun read a paper describing, and also exhibited, a re- markable idol, made of sandstone, and found in Tennessee several years ago. The work is quite unlike anything previously found in this country, but resembles somewhat certain Egyptian idols. A communication w\as received and read from Mr. David H. Shafl'er. offering his collections to the Society, on certain conditions, and re- questing that a committee be appointed to confer with him upon the subject. A motion was adopted authorizing the chair to appoint said com- mittee, whereupon the following were announced as such : Messrs. R. B. Moore, Charles Dury and E. O. Ulrich. Mr. R. B. Moore, on behalf of the Conference Committee on Exposi- tion Buildings, made a final report. On motion of Dr. R. M. B^yrnes the report was received and adopted- and the committee discharged, with the thanks of the Society for the 2 Cmcinnati Society of Natural History. able, careful and patient manner in wliich it has discharged the im- portant duty assigned to it. The donation of a mink, by Dr. II. H. Hill, was announced. The Society met February 4th, the President in the chair. The minutes of the previous meeting were read and approved. Dr. G. A. Sprecher, .proposed at the previous meeting for member- ship, was unanimously elected. Miss Hallie G. Cotton tendered her resignation as a member of the Society. • Mr. Fred. Braun read a paper concerning and descriptive of a new crustacean fossil, the Evo2)loxira lovgicaiala^ which he found in the south eastern part of Indiana. On motion the paper was referred to the Publishing Committee. Dr. Warder gave, in a verbal communication, some very interesting information about the two varieties or species of Catalpa trees found in America, including some statements about its great durability as material for posts, railroad ties, etc. The following donations were announced: one Cauculus anthriscus (mounted), G. C. Lloyd; two eggs of Florida Cormorant, .Chas. Dury; twenty-five copies Report of Ohio Fish Commission, Cuvier Club, through Col. L. A. Harris; a copy of the Pali^ontologist, No. 3, U. P. James. The Society met March 4, 1879, — Vice-President Cotton presiding. There were verbal communications b}' S. A. Miller, E. O, Ulrich, and others. S. A. Miller stated in substance that the masticatory apparatus of Ceratiocaris and Dithyrocaris found in the carboniferous rocks bears a striking resemblance to the same organs in the recent lobster, and that our fossil known as Nereidavus varians has a striking similarity with the masticatory organs ot the Ceratiocaris and Dithyrocaris, so much so that in his opinion the Nereidavus varians should rather be referred to the masticatory organs of our fossil crustaceans than to the annelids. Mr. Ulrich did not agree with Mr. INIiller's conclusions. The following donations Avere received: Mr. Charles Dury announced by letter that he had been re(] nested 03' Dr. Aug. J. Woodward to pre- sent to the vSociety his entire collection of Coleopterous insects, with the cabinet contuining them; 1 copy each of Reports D, E, F, G, H, »t O, of the 2d Geological Survey of Pennsylvania, ficun the coniniission- eis. by llicir seci(tarv, Win. A. lni>hain. Remarks on the Genus Pterotocrinus. REMARKS OX THE GEJ^fUS PTEROTOCRINUS, Lyon and Casseday. By a. G. Wetherby, A.M., Professor of Geology and Zoology, University of Cincinnati. Asterocrimis Lyon ; Geological Survey of Kentuc/cj/, old series, vol. iii., p. 472, pi. iii., figs, la to 17c. Dichocrinus Shumard ; Transactions St. Louis Academij of Science, Fe*bruaiy 9, 1857. Pterotocrinus, L3'ou and Casseday ; American Journal of Science and Arts, Vol. xxix., p. 68, January, 1859. In the third volume of the Geological Survey of Kentucky, old series, page 472 et seq., Mr. L^'on described, under the names Astero- crinus capitaHs and Asterocrinus coronarius, the first species of the remarkable genus which we now have the means of somewhat more fully understanding, and of referring to a more definite place among the Paleocrinidoi. In the article published in the American Journal of Science and Arts, to which reference is made in the S3nionymy above given, the name of the genus was changed to Pterotocrinus, that previously as- signed to it proving to be pre-occupied ; and the autliors, Lyon and Cassedaj', published three new species. In the descriptions of these some facts were added to the previous knowledge of this genus, and its generic formula was arranged as follows : Basal pieces, 2 ; radial pieces, 1st series, 5 ; radial pieces, 2d series, 10 ; radial pieces, 3d series, 20 ; anal pieces, 1 or more; mouth central, 1; column round (?); arms ciliated and single, 20 ; wings or lobed pieces, 5, variously formed. Up to this time, or for a period of nearly twenty years, nothing- further has been added to our knowledge of this anomalous genus, but few additional species having been referred to it, and part of these er- roneousl}'. It is now proposed briefly to review the whole subject, and to add such facts as have been derived from the stud}"^ of a large series of specimens, some of which are far more perfectl}^ preserved than any hitherto discovered, while others are broken or distorted in such a way as to show many parts of the structure in the most satisfactory manner ; so that we now have the means of adding such new facts as will render our understanding of this fossil comparativel}' complete. The Body. The body of this Crinoid consists of a saucer-shaped shallow cup in some species, ur of a much deeper, sub-conical one in others. This arises from the different form of the pelvic plates in the various species 4 Cincinnati Society of Natiiral History. a difference which makes any generic formula, containing descriptions of these plates, subject to revision for each species to a certain extent, as their sliape is by no means constant. The two basals are pentag- onal, centrally excavated on their line of junction for the reception of the column, this excavation in some cases being so widened outwardly as to give rise to a deep cup in the center of the base, and to render the basals carinate on their dorsal surfaces, while in other species it is so small as to bareh^ admit the slender column. When united, the an- terior side, at the end of the suture joining them, contains an angular depression into which is fitted the corresponding face of the first radial on that side. The faces of the basals at the opposite end of the suture are similarly depressed for the reception of the azygos plate. The first radial of the anterior side is heptagonal, much wider than high, with a slight angle on the basal margin, the apex of which corresponds with the line of junction of the basals. It is excavated on the opposite face for the reception of the small second radials, the inner faces of which meet on a line over its center, resting upon which, and their ex- cavated inner faces, is frequently a small, sub-p^a-amidal, accessory plate. The first radials joining the anterior one on either side are hexagonal, twice as wide as high, and similar in form and size to the anterior one, except that they join the basals by a single side instead of two. They bear no accessory plates in an}^ of the specimens. The two posterior first radials are heptagonal, and have their ap- plied inner margins excavated in such a manner as to receive the con- vex sides of the azj'gos plate, above the outer extremit^^ of which they unite, the suture being in an exact line with that of the basals. The second radials are ten in number, longer than high, irregularl}^ quadrangular, so far as can be determined, Avith the longer side resting upon the first radials, about one half of the central upper surface of which they cover. They present slight differences in the ratio of the height and breadth in the different species. Third radials twent}', sub- quadrangular, about twice as wide as high. As there are four to each of the first radials, two of them rest upon the second radials in the center of their upper faces, while the other two have their inner ends resting slightly upon the outer ends of the second radials, and their outer ends joining the uncovered extremities of the first radials. The form of these plates varies exceedingly in the different species, as they are sometimes more than twice as wide as high, while in some of the more conical species the two dimensions are nearly equal. The azygos piece is pyriform or sub-pyramidal, slightly angular at its junction with the basals, and convexlv rounded to a point at the opposite extremity, which is completely embraced b}' the first radials liemarks on the Goius Fterotocrinus. 5 in nil the speciineus examined. The brachial pieces are arranged in series of threes or fours on the third radials, and resemble them in form, except that the ratio of the height to the width is greater. The Arms. These are without Ijifurcations or divisions, composed of a double series of interlocking plates, forty to sixty in each series, gradually tapering to thew" extremities, and bearing two rows of stout, short, five or six jointed pinnulae. The arm-plates are deeply excavated centrall}' on the ventral surface by the ambulacra! grooves, from which radii are continued into the pinnulpe. The arms are long enough to fold over the top into the space at the base of the interbrachial rays. The Vault. This is p3'raraidal an- littie species is [)robabl3' most nearl\' related to C. car- inafns. ^Miller, but the strongly cariniited sides of the volutions and the sharp keel in that species will distinguish them. The strije also are different. Formation and locality: the s[)ocimens examined were found in the layer of dark-blue limestone occurring in the Utica shale, and in which the Modiolopsis cincinnatiertsis. Hall and Whitfield, abounds. Collectors: TI. E. Dickhaut, E. O. Ulrich. Genus MiCRocEKAS (Hall.) MiCKoCERAS MiNUTissiMUM, n. sp. (Plate VII., lig. 8.) [Ety. — Mhuitinsimus, very small.] Shell exceedingly small, discoid; volutions from two to three, rounded, not embracing, the last one nearly- separate, and increasing moderately in size; umbilicus shallow, about one and a half times as wide as the dorso- ventral diameter of the outer volution at the aperture; aperture rounded, approaching sub-ovate; surface smooth. Greatest diameter, 0.02 inch; convexit}' less than 0.01 inch. This shell can easih' be separated from 31. inornatus, Hall, the other species of the genus. In that form the volutions increase much more rapidly in size, and are quite angular on the peripher}- and sides, while in the one under consideration they are rounded. Hall's species is also about three times as large. Another difference, which however may not be constant, is, that the shell of J/, inornatus always has a dark- brown or black color; while all the specimens observed of this species are yellowish white. Formation and locality: found associated with Cyclora mimifa, C. depressa and M. inornatus, at Hamilton, O., and near the tops of the hills at Cincinnati. Collector: E. O. Ulrich. Genus Cyclora (Hall). Cyclora depressa, n. sp. (Plate YIL. figs. 9, 9a.) [Ety.— Depresmis, depressed.] Shell very small, sub-lenticular, about twice as wide as high; spire much depressed; volutions two or three, angular a little below the middle, increasing moderately in size, and with a barely perceptible convexity on the upper side; sutures deeply impressed ; umbilicus large; aperture rhombic oval; surface smooth. 14 Cincinnati Society of Natural History. Height of a specimen of the usual size, 0.02 inch; breadth, 0.04 inch. This species differs from both C. minuta and C. parvula, Hall, in having a larger umbilicus, the spire much more depressed, and the whorls angular instead of rounded. Formation and locality: found in great abundance in the Hudson River Group at Hamilton, Ohio. Genus Zygospira (Hall). Zygospira conoentrica, n. sp. (Plate VII., figs, 10, 10a, 106.) [Ety.— Concentricua, concentric] Shell small, depressed, sub-equivalve, generally a little wider than long; posterior lateral margins straightened, and converging to the beaks at an obtuse angle; lateral margins rounded; front rounded or sometimes a little straightened. Dorsal valve with a shallow, undefined mesial sinus of moderate breadth at the front, but becomes obsolete be- fore reaching the umbo; surface on the sides of the sinus gently convex, and sloping to the lateral margins; beak rather prominent and slightly incurved. Ventral valve with a low mesial ridge, most prominent near the middle of the shell, on each side of the ridge the slopes are somewhat depressed ; l)eak small, pointed, projecting be3'ond that of the other valve, and strongly incurved; foraminal aperture very small, round, and situated just under the apex. Surface ornamented bj' rather distant but well-defined stria' of growth : sometimes 6 or 8 very obscure radiating folds or plications are ob- served; in that case two occupy the mesial ridge and one the sinus. Length of medium-sized specimen, 0.18 inch; width, 0.2 inch; great- est convexity, 0.12 inch. The outlines of Zygospira modesta, Say, are quite similar to those of this shell; that species has, however, from 16 to 20 strong and angular radiating ridges, and only very rarely has the fine and crowded concen- tric lines preserved; but in this species there are generally no radiating plications (when any do exist, they are only rudimentary), while the concentric striic are well developed; besides, the posterior lateral mar- gins are straighter, and the beak of the ventral valve is more pointed, than in that shell. Formation and locality: found in the lower part of the Hudson River Group, on the hills about Cincinnati, at an elevation of from 300 to 350 feet above low water mark. Collectors: W. Gault, W. E. Cook, E. O. Ulrich. Descriptions of N'eir Genera and Species of Fossils. If) Orthis? sectostriata, 11. sp. (Plate VII., figs. 11, \la and 116.) [Ely.— Seco, to cut, to divide-] Shell attaiuiug medium size, sub-circular ; A^alves nearly equally convex. Dorsal valve convex, its greatest prominence being near the middle of the valve; a slight mesial ridge runs from the umbo to the untorior margin; beak short and incurved. Ventral valve with great- est convexity a little posterior to the middle; mesial sinus but slightly defined; beak ver^' prominent, obtusely pointed, and quite strongl3^ in- curved upon that of the other valve. Surface ornamented with from thirty to thirtj'-five fine, even, radiating striae, all of which bifurcate once near the center of the valves, making the number at the anterior margin about seventy. On well preserved specimens, when viewed through a magnifier, the surface exhibits veiy fine and crowded concentric lines. Length of a medium sized specimen. The generic affinities of this specis can not, at present, be positively determined, since its interior is as yet unknown. It is possible that it should be placed into the genus Zygospira, Hall, as it externally much resembles Zygo":pira headi, Billings. From O. ella. Hall, it is dis- tinguished by its circular outline, much finer and bifurcated striae; the beak of the ventral valve is much more incurved upon that of the dorsal valve, than is the case in O. ella.. Formation and locality: the species is not common, and occurs in the Hudson River Group, on the hills back of Cincinnati, Ohio, at an eleva- tion of about three hundred and seventy-five feet above low watermark in the Ohio River. Collector: the' specimen figured was found by Mr. Stanage, A number of specimens have been found by other collectors. Genus Lept^na (Dalman). LEPT^iNA plicatella, u. sp, (Plate VII., figs. 12, 12fl, 126 and 12c'.) [Eiy .—PUcatella , a small plait or fold.] Shell yery small, semi-oval, approaching semi-circular, concavo-con- vex ; hinge line sometimes only as long as the greatest breadth of the valves, but generally its length is greater than the breadth of the shell; lateral extremities varying from acutely angular to rectang- ular, and not reflexed ; anterior and lateral margins forming together nearly a regular semi-circular cui've. Ventral valve rather strongly convex, being almost evenly arched along the middle from the beak to the front; beak very small, scarcely distinct from the cardinal margin; area moderately developed, twice as high as that of the other valve, inclined slightly backward; foramen 16 Cincinnati Society of Ndtvral Jlistov}/. arched over, near the beak, b}^ a small pseudo-detidium. Interior show- ing cardinal teeth to be small; muscular impressions undefined. Dorsal valve concave, with deepest concavity near the middle, and following- so nearl}^ the curve of the ventral valve as to leave but a very thin visceral cavity within; beak not distinct from the cardinal margin: area very narrow, and ranging at right angles to the plane of the valves- Interior of this valve not observed. Surface of both valves marked by distinct, sub-angular, radiating plications, some of which bifurcate once or twice, at about the middle of their length. Near the free margins the strife number from eighteen to twenty-five. Length of a mature specimen, 0.13 inch; breadth, 0.25 inch ; convexi- ty, 0.06 inch. From young specimens ofX. (.'') serciea, Sowerb}', this species is dis- tinguished by having comparatively strong plications instead of the exceedingly fine strife of that species; and in having a greater convex- ity. Formation and locality: in the Utica shale, associated with Trinrthrus becki, at Cincinnati, O., and Covington, Ivy. Heterocrinus geniculatus, n. sp. (Plate VII., figs. 13, ]3o, 13b, 13c.) [Ety. — Geniculatus, jointed, geniculated.] Body small, obconic, and slightly longer than wide. Basal pieces })entagonal, iabout as wide as high, or a little wider. First radial plates in four of the rays, convex, about as wide as high, and pentagonal in form ; each supporting on its upper side a considerably larger sized second radial, that is quadrangular in outline, with a length and width about equal; in the right posterior ray. this piece is slightly truncated for its articulation with the first plate of the azygos or anal series; third radial in these ra3s a little smaller than the second, wider than long, and con- tracted at the upper end to about two thirds of the length of the lower side; these support a somewhat smaller, regularly pentagonal fourth ra dial, the two lateral edges of which are not parallel, but converge toward the inferior end ; this is an axillary piece, and bears two arms on its upper sloping faces. First radial in the fifth or right lateral ray compara- tively large, obscurely pentagonal in outline, and longer than wide, having a length that is nearly equal to the combined height of the first and second radial pieces in the other rays; this piece supports a sec- ond radial which in form and size is tlie same as the third radial in the other rays; above this is an axillary piece, which bears two arms on its superior sloping sides, and in form and size is similar to the ax- illary' or fourth radial plates of the other series of primary radials. Arms, from their origin on the third and fourth radials, simple through- Descriptions of Xeic Geneva and Species of Fossils. 17 out, rounded, rather slender, and composed of elongate, somewhat wedge-shiiped joints; from which proceed strong, jointed pinnies, from near the upper mai'gin of tlieir longer sides. These arm plates arc much enlarged at the origin of the pinnies which are alternate on the opposite sides of the arm, giving the I'a^'s a peculiarly' roughened as- pect and tortuous direction. The pinules appear first on the third and tiien on the sixth piece of the secondary- radials, above which each succeeding plate is provided with one. In some specimens each second or third piece, above the sixth plate of the secondar}- radial series, appears to be divided into two; in that case the lower and small- er piece is without a pinule. The first azygos inter-radial, or anal piece, is w^edge-shaped, with its base resting upon the superior lateral sloping side of the second radial of the right posterior ra}'. Above this there is a direct vertical range of pieces, much rounded on the outer side, and reaching nearly to the ex- tremities of the arms. The ventral prolongation is formed b}' thin ex- tensions of these pieces, which proceed from their sides. The width of these extensions is about one-sixteenth of an inch, more or less. Column of medium size, round, tapering downward from the calj^x. near which, and to one and a half inches below the same, it is com- posed of alternately thicker and thinner disks, the thicker ones being slightly prominent at the edges; the rest of the column, as far as observed, is nearly smooth, and composed of rather thin, sub equal disks. The peculiarl}' roughened and tortuous rays of this species, which in that respect remind one strongly of a number of sub-carboniferous species of Poterioo'inus and Sccqjhiocrinas, will serve to distinguish it from all the other species of the genus known to the writer. //. lax- us, Hall, has this peculiarity developed in a small degree. Otherwise it differs from this species in having a proportionally longer and more angular bod}^ and shorter arm pieces; while the armlets or pinules are proportionally stouter, much shorter, and are given off at longer inter- vals. The column and calyx of IT. simplex, var. grandis, Meek, are much like those parts in this species, but the very different structure of the arms in- the two forms, and the difierent outlines of the third and fourth primary' radials, and the absence of a ventral prolongation in H. simplex^ clearly show that they are distinct. Formation and locality: the specimens used in the description were found in the Utica shale, at Cincinnati, O., within fifteen feet of low water mark in the Ohio River. Collected by J. G. Fine, S. A. Miller, E. O. Ulrich. 18 Cincinnati Society of Nafjtral Jlistory. Dendkockixus (?) CUKTUS, 11. sp. (Plate VII., tig. li.) [Ety.— Curium, short.] Bod}- ti-iiiiciito-obconie, short. Basal i)iec-es very short, more than twice as wide as high. Sub radial pieces raoderatel_y large, rather ob- scurely hexagonal, with a width eqnal to one and a iialf times the length. First radial pieces, in the three rays exposed, a little larger than the sub-radials, about as long as wide, and pentagonal. Right posterior ray with the second piece a little larger than those of the other rays, about as large as the sub-radials, ueai'ly as long as wide, sub-pentagonal in outline, with the two superior sides sloping, so as to give the appearance of an axillary piece, but the right, shorter slope merelj' supports the first anal piece ; while from the left continue the succeeding true radials, of which there are six, somewhat shorter, smaller pieces in direct succession, the sixth one being axillary, and 1 .ipporting the first divisions of the arm. In the ray immediatel}- to the right of the one just described, there are ten pieces (counting the first radial) in direct vertical succession, which, above the first radial, have a width that is nearly ecpial to twice the length : the tenth piece appears to have been an axillary, but this can not be satisfactorilj- determined, on account of the imperfect condition of the specimen at that point. The left posterior ray presents six i)ieces, between the first bifurca- tion and the first radial, that are shorter than in the other rays. Arms moderately long and rather stout, acutely rounded on the dorsal side5 and concave on the inner side, giving off, alternatel}", on opposite sides' at rather distant interv^als above the first bifurcation in eacli ra}', from four to five, or more, scarcelj^ diverging divisions, that are about half as stout as the main ai-m from which they spring, and composed of pieces that are about as wide as long, and prominent at the superior lateral angles ; these armlets remain simple throughout ; the first bi- furcation of the rays is in all respects similar to the succeeding ones. Azj'gos inter-radials or anal series, consisting of a direct vertical lange of pieces, that are longer than wide, not so wide as the primary radials, ver}' convex on the outer side, and rise from the right superior sloping side of the second radial uf the right posterior ray, so as to ])resent much the a|)pearancc of a branch of this ra^- ; ventral prolon gation and its connection with the anal series not observed. Column large, round, nearly' smooth, increasing very slightly in size downward, and composed of nearly equal, thin joints ; the disks have a small, central and (.-ircular perforation, ladiating from which there are fine strijti. Descr/ptiotis of New Genera and Species of Foss-ils. 1'.) The large columas of this species arc quite iibiuulant in the lower twenty-five feet of the Utica shale, as it is exposed on the banks of the Ohio River at Cincinnati. Much search has been made for the body, but without success, so far as the writei" is aware, until the specimen used in the description, and figured, was found by Mr. J. G. Fine. Un- fortunately, the specimen received a fracture, about one half an inch above the top of the column, when the piece of shale in which it occurs was opened, and now (above the fracture) only shows the inner portion of the arms of the anterior side. The column and bodj' are considera- bly compressed, but the plates in the latter seem to retain their rela- tive positions very well. The first radials appear to be free, but this appearance very likely has been produced bj' pressure. The second radial is almost certainly free, except in the right posterior ra}', in which that piece articulates with the first anal plate. In that respect, it approaches very near to Cyathocrinus, in wdiieh the second radial is entirely free. This peculiarity, in connection with others, has in- duced me to place the species only provisionally under Dendrocrinns. until other specimens can be found which will better show the charac- teristics of the species. In the form and structure of the calyx, below the radials, T). ( /) ciir- fus is somewhat like both D. nisticus, Billings, from the Trenton, of Canada, and D. Osivec/oensis, Meek and Worthen, from the Cincinnati Group of Illinois, but in the form of the primary radials, in the struc- ture of the arms, and in the position of the anal plates there is con- siderable difference. There is no species found in the vicinity of Cin- cinnati to which it is near enough related lo necessitate comparisons. Formation and locality, same as the last. Paleaster finei, u. sp. (Plate VII., figs. 15, loa, 15b.) Small; ra3'S five, of medium length, rather broad, pointed, and nar- rower where they are attached to the much contracted bod}', than they are about the center of their length. Dorsal side of rays composed of four rows of pieces, that aVe quite close fitting, as wide as long, from twelve to fourteen in each row, and increase in size inward to the disk, which is composed of irregularly shaped and prominent pieces, some of which are smaller and others larger than those composing the rays; the pieces in the marginal rows are more prominent than the two rows between them, and have a small pit in the center, probably for the articulation of a spine. Madrepori- form body rather small, circular, verj' prominent, and marked b}' strong 20 Cincinnati Society of Natural Jlislorij. .stricG, wliicii l»('C'Oine more mimerons towai'd tlic mariiin by intercal- ation. Marginal pieces on the ventral surface, convex, quite as long as Avide, and numbering in different specimens on each side from eleven to twelve; the piece at the junction of the rays is three times as large as any other of the series, sub-circular, and very convex. Adambulacral plates more prominent, slightly wider than long, and numbering, on each side, from nine to ten. Ambulacral pieces a little wider than long, not alternating with the adambulacral plates, and each provided wHh a rather sharp ridge across most of its width. There are ten oral plates formed by the junction of the adambulacral rows, which in form and size are scarcely distinguishable from the other plates of those series. Greatest breadth measuring between the opposite extremities of the ia3S, 0.7 inch ; breadth of rays at their inner ends, .1 inch ; lengtli of same, 0.3 inch ; diameter of madreporiform piece, 0.02 inch. This species is related to P. matutinus, Hall, but has propoitionally shorter rays, is smaller, and has four roAvs of pieces on the dorsal side of the rays instead of three. That species has a circle of stellately marked pieces on the dorsal side of the disk, which feature is not present in the species under consideration. The madreporiform body is also different. P. incomptus^ Meek, has proportionally much shorter rays, larger disk, onlj^ three series of pieces on the dorsal side ot the rays, and a much less con\'ex madreporiform piece. In the cabinet of the author there is a complete specimen Avith but four rays, which in all other respects is identical Avith the specimens used in the description. Named in honor of the discoverer, Mr. J. G, Fine. P'oi'mation and locality: in the Utica slate that is exposed near low water mark in the Ohio River, at Cincinnati, O. INCERTA SEDES. LtriDOLiTKS, n. gen, [Ety. — Lepig, a scale; llthnu, a stone.] This generic name is propo-ed for the reception of some very pecul- iar fossils, obtained by Mr. II. E. Dickhaut and the author, near Cov- ington, Ky.. on and in the shale immediately surrounding some of the hard clay nodides, Avhich frequently occur in the shales of the loAver part of the Hudson river group. They consist of much flattened, cal- careous bodies, Avliich in their original state must have had. in the typo Descn'pfions of Neir Genera and Species of Fossils. 21 species, a sub-splierionl, and in the other species, a siib-cylindi'ical foi'iii. Tiiey are liollow, with a tliin envelope of imbricating plates or scales. The lower ('? end has an outside indentation similar to that borne by an apple for the reception of the stem, while the correspond- ing part of the interior is raised into a small cone. The interior of the sack appears to be lined with a very thin and delicate integument, to tiie outer surface of which the scales are attached. No oi)enings of any kind can be detected. Type: L. dickhauti. In tlie imbricating plates some resemblance is presented to such genera of the Pal.echinid.e, as Lepidesthes^ but these fossils can scarceh'^ be referred to the Echixodermata, on account of the entire absence of openings, and of an}' series of plates that might be termed ambulacra. The genus seems, in certain characters, to be related to Pasceohis, which by some authorities is considered to be a Cystidean, while others place the genus with the Protista. On account of the unique characters of the specimens on which the genus is founded, I have thought it advisable to describe them, provisionally, as fossils with uncertain affinities. However, I have no doubt, that when these characters are better undei'stood, that the genus will be the type of a new family, if not indeed of a new order. Lepidolites dickhauti, n. sp. (Plate VII., figs. 17, \la, lib). All t'.ie specimens of this species examined are exceedingly flattened, but their original form undoubtedly was either sub-spherical or sub- pyriform, with the lower portion considerably indented. The envelope of scale-like plates is ver}^ thin, being little more than one-hundredth part of an inch in thickness, and appears to have been slightly flexible. The plates imbricate, with the exposed margin rounded, and arranged in concentric lines crossing each other in a quincuncial manner; they are much smaller about the indented portion, gradual!}^ becoming larger as the rows approach the upper portion. The appearance pre. sented liy a specimen that is flattened verticall}', is verv like that stjle of ornamental work on watch-cases called "rose engine turning," In the largest plates observed, the exposed portion has a diameter that is not more than one thirty-secondth of an inch. Detached plates have a length that is equal to about three times the greatest breadth, and are somewhat cuneiform in outline, the widest end being that one which is exposed on the exterior of the sack. When the exceedingly deli- cate integument lining the interior of the sack, and to the outside of 22 Cincinnati Societij of Xatural Histonj. uiiich the plates are attached is vemov'eil, the h)vver ends of the plates are exposed; this side of the plates is provided with a slightly defined, longitudinal furrow. Specimens of this species are usuall}- coated with iron, which effect- ually destroys their minute characters. Fortunateh ', the author found .some fragments that were entirel}' free of that troublesome substance, and from these the details of the above description were obtained. Named in honor of the energetic collector, Mr. II. E. Dickhaut. Foi'mation and locality: the specimens were found in the shales of the lower part of the Hudson River Group, at Covington. K\. Eleva- tion, about one hundred and fifty feet above low water mark in the Ohio River. Lepidolites elongatus, n. sp. (Plate VII., fig. 16). {^iy.—Klongatus, elongated.) This species differs from the type of the genus mainly in its differ- ent form. The form of L. dickJwuti is sub-spherical, while that of the species under consideration is sub-cj'lindrical, with the ends usually somewhat truncated. The length is generalh' equal to about three and a half times the diameter or transverse measurement. The speci- mens are coated with iron, and for that reason I was unable to ascer- tain whether the plates differ from those of the type species. Their arrangement is very much the same. This species seems to have attained a larger size than L. dickhauti. The largest S[)ecimen found, though defectiVe at both ends, in its flat- tened condition is nearly two inches in length, by three-fourths of an inch in width. Formation, locality and collectors: same as the last. Orthodesma subovale, n. sp. (Plate VII., fig, 18). [Ety.— . ) [T^iy-— From flabellinn, a fan.j Pol^'zoaiy forming irreoular, fan-like expansions, carrying cell mouths on both sides. Thickness usually A^arying from one to two lines. Surface sometimes raised into broad and inconspicuous monti- cules, carrj'ing tubules of the ordinary size. Cells oval, with apertures a little arched, arranged in bent and rather irregular rows; about five cells occupying the space of one line, the distance between them being equal to a little more than their diameter. lutertubular space occupied by a great number of minute cells, which are nearly equall}^ distributed between all the tubes of larger or ordinary size. Longitudial sections show the tubules to be nearh^ vertical in the middle of the polyzoary, and then gradualh' bending outwards to the surface. Tabulae are veiy sparingl}' developed, These sections clearly- demonstrate that the interstitial tubuli observed on the surface, are not of the nature of a coeueuchyma, but are only aborted cells. They are developed only near the surface. In the central portion of a trans- verse section, the tubes are angular, of unequal size and irregular form, with no minute tubuli between them. Formation and locality : this species is found quite common at a height of 400 feet above low water mark, in the Ohio Hiver, at the (juarries back of Cincinnati, O. Inocaulis arbuscula, n. sp. (Plate VII., figs. 27, '21 a.) [Eiiy .—Arbustiula, a little shrub.] Frond smalj, originating in a single stripe at the base, diffusely branched and spreading above; branches narrow, and varying some- what in width, the strongest not exceeding two hundredths of an inch, with strong, projecting, prong-like processes rising from the sides at frequent, but variable intervals; bifurcations numerous, not at equal distances. Substance of the frond thin, carbonaceous ; the surface is marked with faint, longitudinal, or slightly diverging corrugations, ir- regularly distributed over most parts of the branches ; the free ex- tremities of the branches are usually pointed. The surface corrugations on this species are much like those seen on some species of Dictyonema, but the mode of growth and the entire absence of connecting filaments, will at once distinguish it from species of that genus. Inocaulis bella, Hall and Whitfield, from the Niagara Group, is closely related to this form ; that species is, however, more Descriptions of New Genera and Species of Fossils. 29 robust, and has the prongs projecting from the sides of the branches more nnmerous. Formation and locality : in the soft shales of the lower portion of the Hudson River Group, at Covington. Elevation of strata about one hundred and fifty feet above low water mark in the Ohio River. Collectors : H. E. Dickhaut, E. O. Ulrich. Crateripora, uov. gen. [Eiy.— Crater, a bowl ; pora, a pore.] Attached to foreign substances, usually forming small, but sometimes quite large expansions, with a deep, cup-like depression in the central part; the latter feature imparting to specimens of the species, much resemblance to crinoid bases or roots; and composed of minute canals radiating irregularly from the cup, and passing obliquely to the sur- face. Spiculse not observed. Type : Crateripora lineata. This genus includes several species, which occur in circular or ex- panded forms, presenting a minutely striated or pitted surface. Al- though I have examined a large number of good specimens, many of which were cut for examination with the microscope, we are not alto- gether certain that the genus should be referred to the sponges. It possesses characters entirely peculiar, and [)robably is a true Paleozoic type. Crateripora lineata, n. sp. (Plate VII., figs. 28, 28«.) [Bty.— From Unea, a line.] Generalh^ growing parasiticall^' upon foreign bodies, but apparently was sometimes free, consisting of small patches, from two to four lines in diameter, usually circular, at other times with the outer margin ir- regular. The cup in the center is provided with a raised margin, and has a diameter one fourth that of the entire specimen. Radiating from the cup are verv fine thread-like stride, the number of which is increased as the margin is approached by interpolation. Upon close examination, the}' prove to be elevated ridges separating the rows of canal apertures. In the cup the apertures are also placed between raised lines radiating in ever}- direction from the middle. From fourteen to sixteen rows occupy the space of one line. Sections taken at a right angle with the surface show the canals in the middle of the expansions to proceed upwards from the base, and terminating in the cup, while the others take an obliquely-outward course to the surface. 30 Cincinnati Society of JSTatural History. Formation and Iocalit3' : not an nncommon fossil in the lower three hundred feet of the Hudson River Group, as exposed at Cincinnati, O. Crateripora lineata, var. expansa, [^iy. —Eiapansa, expanded.] The specimens upon which this variety is established are attached to an Endoceras, and form rather large expansions, the largest examined covering the Endoceras for the distance of two and a half inches. The cup-like depressions are from half an inch to an inch or more distant from each other, over one line in diameter and about one half a line in depth, with a secondary, very shallow depression surrounding them, having a diameter of two lines. The canal apertures are arranged be- tween raised lines, the same as in the typical examples of C. lineata, but where the specimens are well pi-eserved the ridges are ornamented with a row of small granules. This form may be distinct from C lineata, but the material at hand is not sufficient for a satisfactory determination of that point. At any rate it is an easil}' distinguished variety of that species. Formation and locality: in the middle part of the Hudson River Group, at Hamilton, O. Collector: E. O. Ulrich. Crateripora erecta, n. sp. (Plate VII,, figs. 29, 29r?.) [Eiy. —Erecta, erect.] This species grows parasitically upon foreign substances (usually upon Choitetes mammulatus), and consists of small, circular, or some- what irregular bodies, having much of the form of the t3q3e, C. lineata. excepting that the margin of the central depression is not raised. The cup has a diameter equaling one seventh of that of the entire speci- men. The upper surface is covered with the openings of minute canals, of different sizes, irregular shapes and arrangement, apparentl}- pass- ing with but little obliquity from the lower or attached portion, to the upper surface. About fifteen canal apertures occup}' the space of one line. Diameter of expansions from one to two and a half lines. This species is distinguished from either of the preceding forms b}' its smaller size, comparatively smaller cup, its irregular arrangement of the canals, and in having the latter more erect in their course from the base to the upper surface. Formation and locality : the type specimens were found in the Hud- son River Group, at Cincinnati, O., at an elevation of four hundred feet above low water mark in the Ohio River. Collectors : H. E. Dickhaut, E. O. Ulrich. Bemarks iqjon the Kaskaskia Group. 31 REMARKS UJ'Oj^ THE KASKASKIA GROUP, AXD DESCRIPTIONS OF NEW SPECIES OF FOSSILS FROM PULASKI COUNTY, KENTUCKY. By S. A. Miller, Esq. The fossils described in tliis article are referred to the Kaskaskia Group for the following reasons, to-wit: Dr. Geo. G. Shumard, who accompanied Marcy's Exploration of the Red River of Louisiana, in 18.^2, and whose remarks npon the general geology of the country passed over by the exploring expedition were published in 1854 (Expl. Red Riv. Lou. p. 156), thus described the geological features of a portion of Northwestern Arkansas: " In Washington county we have a fine development of rocks belong- ing to the carboniferous period. I'ising sometimes several hundred feet above the water level of Arkansas River. Thej' consist of beds of dark gray and bluish-gra^- limestone, surmounted by heavy-bedded- coarse and fine grained quartzose sandstone. The ridges of highest elevation run nearly north and south through the center of the countrj^ forming a geological back-bone; the waters from one side flowing east- wardly into White River, and on the other westwardly into Illinois River, both streams being tributaries of the Arkansas. " Wherever the limestone forms the surface-rock, the soil is of excel- lent character, and for productiveness is unsurpassed b}' any in the State; but where the sandstone reaches the surface, the soil becomes too arenaceous, and' is of inferior quality for agricultural purposes- The limestone is generally highl}- charged with fossils, and, in man}^ places, beds of considerable thickness are almost entirel}* composed of the remains of crinoidea. " In the lithological and palaeontological characters it corresponds very closely to the rocks of the superior division of the carboniferous system of Indiana. Keutuckj', Illinois and Missouri. The fossils are usuall}^ remarkably well preserved. The following are the most abundant and characteristic species: Archimedipora archimedes, Agas- sizocrinus dacfAjliformis, Pentremites sulcatus, Productus cora, P. pimctatus, P. costatus, T'ei'ebratida subtilita, and T. marcyi. We have found all these species associated together in Grayson count}', Kentucky, near Salem, Indiana, and at Chester and Kaskaskia, Ill- inois. " The line of junction between the sandstone and limestone is 32 Cincinnati Society of Natural History. well defined, there being an abrupt transition from the one into the other. The sandstone has yielded but few fossils, and these only cal- amites and ferns." In the same work, Dr. B. F. Shumard described from the gra^nsh earth}' limestone of Washington county, Cyathocrimis grannliferus, and identified it with a fossil found at the summit of Muldrow's Hill, in Kentuck}'. It is very evident that as earh' as 1852 both Dr. Geo. G. and Dr. B. F. Shumai'd were well acquainted with the superior division of the sub-carboniferous rocks in Illinois, Missouri, Indiana, Arkansas and Kentucky, but they did not propose a name by which the division might be known. In 1856 (Trans. Alb. Inst. vol. 4), Prof. James Hall described new species of fossils from the carboniferous limestones of Indiana and Illinois, and separated the Groups of beds of limestone, shale, etc., constituting the carboniferous formation into seven members, and for the first time used a geographical name for the Group in question. He said: " This section is compiled from observations made in the Valley of the Mississippi Eiver, from Burlington, Iowa, to near the mouth of the Ohio; and from previous examinations made in Indiana and Illinois. The same formations having been traced southward through Ken- tucky, Tennessee and Alabama, I believe we have now a definite con- ception of the members which constitute the great carboniferous lime- stone formation, which in one or other of its members extends from near the center of Iowa on the northwest, through Illinois and Indi- ana to the southwest, and south through Missouri, Arkansas, in part, Kentucky, Tennes■^ee and Alabama. (I have in another place ac- knowledged my obligations to Mr. A. H. Wortheu, of Illinois, who aided me in tracing out and determining these Groups.) " I am satisfied that a more careful study of the fossil reuuiins from these beds will sustain the view I have taken; and we shall hereafter recognize .each of these Groups as possessing its ov^'w fauna, whieh to a great extent will prove distinct from all the others. "VII. Coal measures. "VL Kaskaskia limestone, or upper Archimedes limestone, ^'■Localities. — Kaskaskia and Chester, 111., St. Mar3's, Miss,, etc. "V. Gray, brown or ferruginous sandstone, overlying the limestones of Alton and St. Louis, '■'■Localities. — Below St. Genevieve, Missouri; between Prairie du liocher and Kaskaskia, Illinois. Remarks vpon the Kaskaskia Group. 33 '•IV. St. Louis limestone, concretionary limestone. '^^ Localities. — Highest beds below Keokuk, Iowa; St. Louis, Mis- souri; St. Genevieve. "III. Arenaceous bed; second Archimedes, or Warsaw limestone. '■'Localities. — Warsaw, above Alton, Illinois; Spergen Hill, Bloom- ington, Indiana. "Beds of passnge; soft shal}^ or marh^ bed, with geodes of quartz^ chaleedon}^ etc. "II. Keokuk limestone, or lower Archimedes limestone. '■'■Localities. — Keokuk, Quiucy, Illinois, etc. "Beds of passage; cherty beds 60 to 100 feet. "Rapids above Keokuk. "I. Burlington limestone. '■'■Localities. — Burlington, Iowa; Quincj', Illinois; Hannibal, etc.. Missouri." In 1858 Prof. James Hall (Geo. Sur. of Iowa, vol. 1, pt. 2) said: " The Kaskaskia limestone, so well developed at Kaskaskia, and thence along the river bottom to Chester, and as far as Fountain Bluff, is unknown up to the present time within the limits of the State of Iowa. I have, nevertheless, felt it my duty to illustrate in some measure its fossil remains, in order to prove its distinctness from the Keokuk limestone, with which it has, heretofore, been identified as the ' Archimedes limestone.' The fossils selected for this purpose are of the same class, and represent the forms, chiefly, of Crinoidea and Brachiopoda, which are most commonly found in these limestones. No species common to the two limestones have been observed by my- self; and though probably such do occur, the^^ arecertainlj^ not numer- ous, nor among the prominent forms which everj'where mark the two rocks." He described from the Kaskaskia limestone at Kaskaskia and Chester. Illinois, Scaphiocrinus decabrachiatus, 8. internodius, 8. scopariiis, Zeacrinus intermedium, Z. maniformis.^ Z. loortheni, Agassizocrinus gibbosus, A. constr ictus, Cyathocrinus pentalobus, Dichocrinus pro- tuberans, Acrocrinus urniformis, Pentremites cherokeus, P. cervinus, P. godoni^ P. jpyriformis.^ Agelacrinus kaskaskensis, Arclufocidaris norwoodi, Athyris siiblamellosa, A. subquadrata, Retzia vera, R. vera var costata, Spirifera setigera, 8 spinosa^ 8.. increbescens. Several of these species are mentioned as occurring in Kentuckj^ and other places. Zeacrinus magnoliceformis, Pentremites symmetricus, P. obesus and P. globosus, are mentioned as occurring in the same limestone in Tennessee, Ken tuck V, and elsewhere. 34 Cincinnati Society of HSfatural Hislorij. In October, 1860, Prof. G. C. Swallow (Trans. St. Louis Acad. Science, vol, 2) read a paper, entitled " Descriptions of some new Fossils from the Carboniferous and Devonian Rocks of Missouri," in which he described Terebratula arcuata and Natica chesterensis from the Kaskaskia Limestone in St. Genevieve county, Missouri, and at Chester, Illinois, and Allorisma antiqua, which he said was common in the Kaskaskia limestone in Illinois and Missouri. We have, therefore, in a periodof eight years, from 1852 to I860,, a description of the distribution and extent of the Kaskaskia limestone, and the definition and illustration of numerous fossils which character- ize it, by Dr. Geo. G. and Dr. B. F. Shumard, Prof James Half, and Prof, G. C. Swallow, appearing in such standard scientific publications as the Exploration of the Red River of Louisiana, the Transactions of the Albany Institute, the Geological Survey of Iowa, and the Trans- actions of the St. Louis Academy of Sciences. In 1866, the State Geologist of Illinois (Geo. Sur. of 111., vol. 1) said : '• In the spring of 185.3, while acting as Assistant Geologist in the Illinois survey, I was directed by Dr. Norwood, at that time the State Geologist, to go to Randolph county and determine, if possible, the relative position of the St. Louis limestone, and the beds forming the river bluffs at Chester;, and it is, perhaps, proper to state that up to that time the former were supposed to overlie the latter beds. *' At Prairie du Rocher, in the northern part of the county, I found the St. Louis limestone in situ, forming the entire blutf, and two miles below I saw this limestone passing under a massive brown sandstone, more than a hundred feet in thickness. Six miles below Prairie du Rocher, this sandstone also passed below the surface, and was suc- ceeded by another limestone formation, which was traced continuously to Chester, and from there south along the river bluffs into Jackson county, where it was overlaid by the sandstones that form the base of the coal measures. I returned to New Harmony, Indiana, the head- quarters of the survey' at that time, and communicated the results to Dr. Norwood, with a copy of my notes and a section, in which I desig- nated the beds at Chester as the Chester limestone. He expressed some doubts as to the correctness of the conclusions to which I had arrived, because the}' conflicted with the views of most western geolo- gists, especially those of Missouri, and he proposed going over the ground with me, for the purpose of reviewing the section I had made. Accordingly in the autumn of the samej^ear I revisited that region, in company with Dr, Norwood, and we retraced the bluffs from the Big Remarks upon the Kaskaskia Group. 35 Muddy River, iu laoksou coimly, to Prairie du Rocher, in Randolph county, conliruiing to his entire satisfaction the correctness of the section previously made. Holding a subordinate position in the sur- vey, I did not feel at liberty to publish the facts I observed in the prosecution of my labors in the field, and as they were not announced by tiie Chief of the Survey', who alone had the authority to make known the scientific results attained in the prosecution of the work, these facts remained unknown, except to the members of the Illinois corps. " On the appearance of the Missouri Report, in 1855, in which all the limestones, containing the screw-shaped fossil known as Archimedes., were grouped together under the name of Archimedes limestone, and placed below the St. Louis limestone, I informed Prof. Hall, with whom I was then engaged in the Iowa Survey, of the result of the ob- servations 1 had previously made, in Illinois, and the true sequence of the strata, as determined in the section above named, and he at once proposed that, at the conclusion of our field labors in Iowa for that season, we should go to Randolph county, that he might vei-ifj' by per- sonal observation the conclusions at which I had arrived. Accord- ingly, in October of that year, we went together to that county, and for the third time I traced the bluffs, on foot, from Prairie du Rocher to Chester, and for the second time A'erified the results of m3' first ex- amination. In the following year (1856), Prof. Hall read a paper be- fore a meeting of the Albany Institute, in which the subdivisions of the sub-carboniferous limestones are given substantially as they sub- sequently appeared in the Iowa Report. His reasons for substituting the name of Kaskaskia for Chester limestone do not appear, and we prefer to retain the name first given to it, when its true position in the series was determined." It follows from what has been said that the name Kaskaskia lime- stone has by publication ten years' priority over Chester limestone., and that while Prof. Worthen was an independent discoverer of the true position of these rocks, that he was nevertheless a year behind Dr. Geo. G. Shumard in determining their position, and twelve years be- hind him in publishing such determination. Moreover, Dr. Shumard had, at that early time, determined their extent and distribution, not only over a small area in the State of Illinois, but in Missouri, Arkan- sas, Indiana and Kentucky. In conclusion, it is evident that by all the rules governing scientific no- menclature, in matters of priority, the name Chester limestone or Ches. fer Group must be stricken out because it is a s3'nou3'm for Kaskaskia 36 Cincinnati Society of Natural History. limestone; and the name Kaskaskia limestone, or Kaskaskia Group, as I prefer to call it, retained for the upper division of the sub-carbon- iferous formation. PoTERiocRiNDS AVETHERBYi, u. sp. (Plate VIII., fig. 1, natural size; la, anterior view showing azygos interradials; 16, magnified view of part of the proboscis.) Column. — The column is composed of alternatel}' thin and thicker joints, and is evidently ver}' long. It is pentagonal at the head, but graduallj^ assumes the cylindrical form below, so that at the distance of three inches below the body the pentagonal form can not be observed- It slightly enlarges as it approaches the junction with the head, prob- abl}^ not in excess, however, of the angles necessary to create the pen- tagonal column. The articulating faces of the plates are strongly marked by radiating furrows, which ornament, hy their serrated edges, the surface of all weathered columns. Body. — The length of the bod}' is greater than the diameter. It is nearly obconoidal, or rather, regularly expanding from the column to the second radials. The plates are smooth and slightly convex. The sutures are well defined. Basal pieces. — There are five pentagonal basal plates, each of which is a little longer than wide. The two longer sides of each join the adja- cent basal plates; the two shorter ones form the upper sloping sides, upon which the subradials rest; and the other side articulates with one of the five sides of the pentagonal column. Subradials. — Three of the subradials are hexagonal, and two hepta- gonal. The two longest sides of each plate join with the adjacent sub- radials; the two shortest sides meet the basals below; and the super- ior sides of the hexagonal plates support the first radials above. The heptagonal plate on the left of the azygos interradius, supports upon its upper truncated side the left anterior first radial, upon its left super- ior sloping side the second left anterior first radial, and upon its right superior sloping side the first az} gos iuterradial. The other heptagonal plate is situated more directlv beneath the azygos interradius. It supports upon its upper slight!}' truncated side the second azygos iu- terradial; upon its left superior sloping side the first azj^gos interra- dial; and upon its right superior sloping side the right anterior first ladial. First radials. — The first radials are pentagonal and wider tlian long. The upper strongl}' truncated side of each upon which the second ra- Remarks upon the Kaskaskia Or on p. 37 dials rest is the longest. Two sides- of eaeli rest upon the superior sloping sides of the subradials, and the other two join the adjacent first radials, except as to the right anterior first radial which joins one side with the second az3'gos interradial, and the left anterior radial which rests one side upon the first azygos interradial, and another joins the third azygos interradial, while ai the angle of junction it is met by an angle of the second az^^gos interradial. Second radials. — The second radials are pentagonal, longer than wide, rounded and constricted in the middle, and support the arms upon their superior sloping sides. Azygos interradials. — There are three azygos interradials. The first is quadrangular — two sides rest upon the subradials, the left superior side joins the left anterior first radial, and the right superior side supports the second azygos iuteri^dial. The second is penta- gonal, and rests upon the slightl}' truncated top of the anterior sub- radial; its left inferior side joins the first azj^gos interradial; its right inferior side joins the right anterior first radial, its right superior side supports the right anterior second radial, and the left superior side joins the third azygos interradial. The third is quadrangular, the lower sides are joined by the left anterior first radial, and the second azygos interradial, and the superior sides by the two anterior second radials. Arms. — There are ten very long, strong, round arms supported upon the superior sloping sides of the second radials. The}^ are composed of wedge-shaped pieces, alternately arranged, so as to bring the thicker ends upon each side of the groove, not upon the outer and inner face ot the arm. The first arm pieces have each a length equal to the dia- meter of the arm, and as they rest upon the superior sloping sides of the second radials they are twice as long upon one side as upon the other. Immediately above the first arm piece, two arm pieces have a lengtli about equal to the diameter of the arm. but at the distance of about three inches from the first arm piece, the diameter is about equal to the length of three pieces. Each arm piece supports upon its thicker end a long slender single-jointed pinnule. These pinnules are alternately arranged on the two sides of the deep longitudinal groove or channel on the inner face of each arm. The thicker ends of the arm plates project, at the upper side, so as to form steps upon the arm, which constitute additional supports for the bases of the pinnules. The first piece in each pinnule is short and spreading at the base — above this each piece is three or four times as long as its diameter. Proboscis. — The proboscis is long, and from appearances nearly 38 Cincinnati Societii of Natural History. round and gradually tapering. It is composed of rather large plates, much longer than wide, which are united longitudinally hy pectinated edges, that much resemble the sculpturing in the pectinated rhombs of the Cystidea. Locality. — This species is described from specimens in the collec- tion of Prof. A. G. Wetherby, who discovered them in rocks of the age of the Kaskaskia Group, in Pulaski count}^, Kentucky'. EUPACHYCRINUS SPARTARIUS, n. Sp. \JEXy .—Spartaritis, of or belonging to a broom]. Plate VIII., fig, 2, anterior view, showing azj-gos interradials, and one arm springing from a second radial, and two arms from a third radial; fig. 2a, posterior side allowing two arms springing from a sec- ond radial. Column round. Body. — Body robust, bowl- shaped, deeply sunken for the reception of the column, constricted at the arm bases, and with its strong arms, much resembling in shape the ordinar}- hickory or oak scrubbing- broom. Plates thick, strong, smooth and slightl}' convex. Sutures well defined. Basals. — Basals small and deeply sunken in the depression of the under side. Their shape not determined, Suh-radials. — Sub-radials large, curving upward upon the outside and into and upward in the concavity of the under side of the bodv. The two superior sloping sides of each of four sub-radials suppoi't first radials, while the one upon the azygos side in addition to joining with two first radials also bears two azygos interradials upon its irreg- ular upper sides. First radials. — The first radials are pentagonal, and nearl}' twice as wide as high. The upper strongly truncated side of each, upon which the second radials rest, is the longest; the two inferior sides of each rest upon the superior sloping sides of the sub-radials; and the other two sides join the adjacent first radials, except as to the right and left anterior first radials, which join one side each with an azygos plate. The left anterior one unites a very short side with a sub-ra- dial, and is more irregularly pentagonal than the other first radials. Second radials. — The second radials are pentagonal, about two thirds as large as the first radials, and a little more than twice as wide as high. The longest side of each articulates with a first radial, the shortest sides unite with the adjacent second radials except as to the Remarks upon the Kaskaskia Group. 39 two which join the azygos plates. The posterior second radial bears upon each of its superior sloping sides an arm, while each of the other four second radials bears on one superior sloping side an arm, atid upon the other a third radial bearing two arms; thus furnishing to the crinoid fourteen arms. Third radials. — The four third radial pieces are each pentagonal, and nearly twice as wide as high. Azi/yos interradials. — There are three azj'gos interradials visible upon the outer side, the third one of these is seen as high as the first arm pieces, and thus indicates that it may unite with other plates which terminate in a pointed proboscis within. The first or lower az}'- gos interradial rests an ai-cuate side upon a sub-radial, joins its left arcuate side with a first and second radial, and its left side with the second and third azygos plates. The second azygos plate is very irreg- ularlj"^ pentagonal. The lower side rests upon a sub-radial, the left in- ferior side joins the fii'st azygos plate, the right inferior side joins the first radial, the right superior side joins a second radial, while the left superior or upper side supports the third azygos plate. Proboscis. — The proboscis is seen projecting like a needle at the upper broken end of the specimen which is illustrated. The azygos interradials cover a convex ridge over the vault, which terminates at the center in a small proboscis. Arms. — The arms are strong, simple, convex on the outer side, and flattened laterall}^ so as to fit close together. The first arm plate is double the size of the succeeding ones, the next two to four arm plates are wedge shaped, and above these there is a double alternating series of wedge-shaped pieces in each arm. The number of single wedge- shaped pieces, between the first arm plate and the double alternating .series, A'aries in different arms in the same specimen, and probably varies in difi'erent specimens. The furrow upon the inner side of each arm is protected b}" a pinnule springing from ever}- plate, upon each side of the arm; this arrangement, when the arms are folded, fills the interior with a dense mass of pinnules. This species is readil}' distinguished from Eupachycrinus boydi by the number, position and shape of the azygos interradials, as well as by the form and proportional size of other plates. Locality. — This species is described from specimens in the collection of Prof. A. G. Wetherby, who discovered them in rocks of the age of the Kaskaskia Group, in Pulaski count3% Kentucky-. 40 Cincinnati Society of JSTaturcd History. EuPACHYCRiNUS GERMANus, n. sp. (Plate VIII., fig. 3, anterior view.) [Ety. — Germanns, near a-kin, come of the same stock; from its resemblance to E. spartarius.] Volumn. — Column round. Body. — Body bowl-shaped, deeply sunken for the reception of the column, constricted at the arm bases, and much resembling E. .spartarius, though less robust, plates less convex, and sutures not so well defined. Basals. — Basals small and deeply sunken in the depression of the under side. Shape not determined. Suhradials. — Subradials large, curving upward upon the outside and into and upward in the concavity of the under side of the bod}', where each of them has a mesial notch or depression. The superior sloping sides of four subradials support first radials, but the left anterior sub- radial also supports the first azygos plate. The anterior subradial supports upon its right superior side a first radial, upon its left the first az^'gos plate, and upon its upper slightly truncated edge the second azj^gos plate. First radials. — The first radials are pentagonal, and a little wider than high. The upper strongly truncated side is the longest. The two inferior sides of each rest between the superior sloping sides of the sub- radials below, except as to the left anterior first radial, which is sup- ported upon its right inferior side by the first azygos interradial. The other two sides join the adjacent first radials, except as to the two an- terior plates. The left anterior one is almost if not quite quadrangu- lar, for the third azygos plate barely touches it. Second radials. — The second radials are pentagonal, not quite as large as the first radials, and nearlv twice as wide as high. The long- est side of each articulates with a first radial, the shortest sides unite with the adjacent second radials except as to the two which join the azygos plates. The posterior second radial bears upon each of its su- perior sloping sides an arm, while each of the other four second radials bears on one side an arm, and upon the other a third radial bearing two arms; thus furnishing to the crinoid fourteen arms. Third radials. — The four third radial pieces are each pentagonal, and nearly as high as wide. Azyyos interradials. — The first or lower azygos plate is pentagonal; the two inferior sides resting upon sub-radials, the left superior side supporting a first radial, the right superior side the second Vk,zy^o?. plate, and the upper side the third azygos plate. The second plate is hexagonal. It rests upon the anterior sub-radial, the inferior sloping- sides are supported between the first azygos plate and a first radial, the superior sloping sides between a second radial and the third azygos Bemarks- upon the Kaftkaskia Group. 41 plate, and the upper side supports the tburth az^-gos plate. The third azygos plate is supported below ui)on the first azygos plate, the right inferior side joins the second azygos, the right superior the fourth azj^- gos, the top the fifth azygos, the left side a second radial, and it corn- ers with a first radial below. The fourth azygos plate reaches upon one side the right anterior second radial, otherwise it is joined to az}'- gos plates. The fifth az3^gos is bounded by azj-gos plates. The azy- gos plates cover a convex ridge to the center of the vault, and termin- ate in a small needle-like proboscis. Arms. — The arms are strong, simple, slightly convex upon the out- er side, and flattened latterall}^ so as to fit close together. The first arm plate is double the size of succeeding ones, this is followed by from two to four wedge-shaped pieces in each arm, and above these there is a double series of alternating wedge-shaped pieces. The furrow upon the inner side of each arm is protected b^' a pinnule springing from every plate upon each side of the arm. This species is distinguished from E. sparlarixs, which it most re- sembles, chiefly by the number, form, and arrangement of the azj'gos interradials, and b}- the shape of the left anterior first radial, though it differs in minor details in nearly all parts of the body and arms. Locality. — This species is described from specimens in the collection of Prof. A. G. Wetherb}', who discovered them in rocks of the age of the Kaskaskia Group, in Pulaski county, Kentucky. Lepidesthes fokmosus, n. sp. (Plate VIII., fig. 4, magnified two diameters. [Ety. —Formosus, beautiful.] The general form of the bod}', judging from a single compressed specimen, is subspheroidal or truncato-elliptical. Surface of the plates smooth. Amhulacrol areas. — The ambulacral areas are somewhat lance- elliptical in shape, and apparently suflSciently convex to preserve the circular shape of the body. These areas are occupied by numerous rhomboidal and irregularly hexagonal pieces, arranged in curved lines crossing each other in quincuncial order, and imbricating downward. The specimen shows eight plates, in each curved row, below the first five, from the occular pieces. Ten rows of 8 plates each maj- be counted in one ambulacral area of the specimen; the difference in width of the area being compensated by a greater exposure of the surface of the plates as we approach the middle ; some of the rows have nine plates, and it may be that a better specimen will show more pieces in the central part of 42 Cincinnati Society of JVatural History. the area. The edges of all the plates are beveled so as to permit the imbricated arrangement without producing a very rough outer surface. There are two ambulacral pores in the central part of each piece, arranged transverseh'. Inter ambulacral areas. — The interambulacral areas are covered b}' live rows of plates, which imbricate upward and outward. This ar- rangement allows the plates in the middle row to project their under beveled edges upon the plates on each side, while the plates in the outer rows project their beveled edges upon the inter- ambulacral plates. Ovarian plates. — One Ovarian plate shows two genital pores, and another one shows three, and one apparently shows four, but the de- pressed condition of the specimen will not permit of too much certainty respecting these pores. The ocular pieces, or pieces between the Ovarian plates, are a little smaller than the Ovarians, and one of them shows two pores, or at least what appears under an ordinar}- magni- fier to represent two pores. The apical disc is composed of several plates, but the condition of our specimen will not permit us to determine with certainty their exact arrangement. Locality. — This species is described from a single specimen in the collection of Prof. A. G. Wetherby, who discovered it iu rocks of the age of the Kaskaskia Group, in Pulaski County, Kentucky. CATALOGUE OF THE FLOWERING PLANTS, FERNS AND FUNGI GEO WING IN THE VICIN- ITY OF CINCINNATI. By Joseph F. James. The following catalogue has been compiled from personal observa- tion, and from the catalogues of Messrs. Lea and Clark. Their lists contain the names of some species which I have not identified as found in this locality. In such cases their respective names are given in brackets. I am especially indebted to Mr. T. W. Spurlock for valu- able information and specimens, which, but for his indefatigable work in collecting, I should perhaps not have seen. Thanks are also due to my brother, Mr. Davis L. James, to Dr. J. H. Hunt, Dr. R. M. Byrnes, Mr. F. W. Langdon, Mr. C. G. Lloyd, Mr. J. L, Taylor and others, for specimens and information. Sucli chauoes have been made iu the nomenchitui'O and arrangement CataUxjHe of Flowering Flanfs, Ferns and Fungi. 43 of the ordei's as have been made necessary by recent investigations. As far as the order C'a/>r(/oZiacer/.', tlie arrangement in Watson's Biblio- graphical Index to North American Botany has been followed. After that the arrangement in Gray's Manual. Some genera have been merged in old ones, and some species of one genus transfen-ed to an- other. Whenever such has been the case in late years, synonvms are given. The list of fungi lias been copied bo. lily from the excellent catalogue of Mr. Lea, published in 1849. As this is now out of print, and almost impossible to procure, I have thought that a reprint of this part of his work would be a benefit to such workers as may be inclined to take hold of the subject. A very few have been added as found by my brother, and mention is made of such species of the list as he has identified. Mr. Lea is almost the onl}' one who has collected the lower Gryptogamia in this neighborhood extensively, and his list is valuable not onh' as an index of what we ma^' expect to find here, but also for the valuable notes on the locations of the species, as well as descrip- tions of new ones. The name of Rev. M. J, Berkelej', to whom the arrangement of this portion of Mr. Lea's collection was intrusted, i.s sufficient guarantee of its accuracy, and the corrections in nomencla- ture and orthography, which have kindly been made by Prof. Chas. H. Peck, of Albany, New York, make this portion of the catalogue as cor- rect as the present state of knowledge permits. RANUNCULACE.^. Clematis, L. 1 Viorna, L. Leather Flowe«. 2 Virginiuia, L. Common Vir- ojin'.s Bower. Anemone, L. 3 Virginiaiia, L. Virginian Ane- mone. 4 dichotoraa, L. 5 acutiloba, Liwson. Sharp Lobed Hepatica ( Hepatica acuciloba, D C). 6 Hepatica, L. Round Lobed Hepatica (Henatica triloba, Chaix, (Clark's Cat). Thalictkum, Tourn. 7 anenionoides, Miehx. Rue-An- emone. 8 dioicum,L. Early Meadow Rue. 9 purpnrascen.5, L. Purplish Meadow Rue. 10 Cornuri, L. Tall Meadow Rue (Mr. T. W. Spurloek). TuAUTVETTERiA, Fischer and Meyer. 11 palmata, Fischer and Meyer. False Bugbane (Lea's Cat.) Ranunculus, L. 12 aquatilis, L. Common White Water Crowfoot (Clark's Cat.) 13 Flammula L. Smaller Spear- wort (Clark's Cat.) 14 abortivus, L. Small flowered Crowfoot, var. micranthus, Gray. 15 seeleratus, L. Cursed Crow- foot. 16 recurvatus, Poir. Hooked Crow- foot. 17 repens, L. Creeping Crowfoot. 18 auris, L. Tall C, or Buttercups. ISOPYRUM, L. V.) biternatum, Torr and Gra}'. Caltha, L. 20 palustris, L. Marsh Marigold (Mr. T. W. Spurloek). 44 Cincinnati Society of Natural History. Aquilegia, Tourn. 21 Canadensis, L. Wild Colum- bine. Delphinium, Tourn. 22 tricorne, Michx. Dwarf Lark- spur. 23 consolida, L. Field Larkspur. Hydrastis, L. 24 Canadensis, L. Orange Root. ACT.EA, L. 25 spicata, L., var. rubra, Miobx, Red Baneberry (Clark's Cat.) 2G alba, Bigel. White Baneberry. CiMICIFUGA, L. 27 racemosa, iS^utt. Black ISnake- root. MAGNOLIACE^^. LlRIODENDRON, L. 28 Tulipifera, L. Tulip tree. ANOXACE.E, AsiMiNA, Adams. 29 triloba, Dunal. Common Pa- paw. MENISPERMACE.^. Menisi'Ermum, L. 30 Canadense, L. Canadian Moon- seed. BERBERIDAOE^. Caulophyllum, Michx. 31 thalictroides, Miciix. Blue Co- hosh. Pappoose Root. Jeffersonia, Barton. 32 diphylla, Pers. Twin-leaf. Podophyllum, L. 33 peltatum,L. May Apple. Man- drake. NYMPfT.^ACE.E. Xelumbium, Juss. 34 lutenm. Will.]. Yellow Nelum- bo. Water chinqu., var.vitellina, Grav. White Willow. (Clark's Cat.) 665 longifolia, Muhl. Long-leaved Willow. PoPULUs, Tourn. 666 grandidentata, Michx. Large tootiied aspen. 667 monilifera, Ait. Cotton Wood. Necklace Poplar. 668 angulata. Ait. Angled Cotton wood. (Clark's Cat.) 669 balsamifera, L., var. candi- cans. Gray. Balm of Gilead. 670 dilatata. Ait. Lombardy Pop- hir. 671 alba, L. White Poplar, Silver Poplar. CONIFERS. JUNIPERUS, L. 672 Virginiana, L. Red Cedar or Savin. Catalogue of FLoivering Flaiits^ Ferns and Fungi. 59 ARACE^. Aris,ema, Marti us. 673 triphylliun, Torr. Indian Tur- nip. 674 Dracontiura, Scliott. Green Dragon. Symi'locarpus, Salisb. 675 fcBtiilus, Salisb. Skunk Cab- bage. AcoRUS, L. 676 Calamus. L. am us. Sweet Flag. Cal- LEMNACE^. Lkmna, L. Duckweed. 677 trisulca, L. (Clark's Cat.) 678 minor, L. (Clark's Cat.) 679 polyrrhiza, L. TYPHACE^. Typha, Tourn. 680 latifolia, L. Cat tail Flag. Reed Mace. Sparganium, Tourn. 681 rainosum, Hudson. Bur-Reed (Clark's Cat.) 682 simplex, Huds.,var. Nuttallii, Gray. (Lea's Cat. as S. Americanum, Nutt.) NAIADACE^. Naias, L. 683 flexilis, Rostk. (Lea's Cat.) Zanxichellia, Micheli. 684 palustris, L. (Lea's Cat.) Potamogetox, Tourn. Pondweed. 685 natans, L. 686 compressus, L. (Clark's Cat.) 687 pauciflorus, Pursh. 688 pectinatus, L. (Clark's Cat.) ALISMACE^. Alisma, L. 689 Plantago, L.,var. Americanum Gray. Water Plantain. Sagittaria, L. 690 variabilis, Engelni. Anow- head. HYDROCHARIDACE^. Anacharis, Richard. 691 Canadensis, Planchon. Water- weed . ORCHIDACE^. Orcuis, L. 692 spectabilis, L. Showy Orchis. Habenaria, Willd., R. Br. 693 psycoides. Gray. (Clark's Cat.) 694 peramoena. Gray. GOODY'ERA, R. Br. 695 pubescens, R. Br. Rattle- snake Plantain. (Clark's Cat.) Spiranthes, Richard. Ladies Tresses. 696 cernua, Richard. (Clark's Cat.) 697 gracilis, Bigelow. (Clark's Cat.) POGONIA, JUSS. 698 pendtila, Liiidl. (Clark's Cat.) LiPARis, Richard. 699 liliifolia, Richard. Twav Blade. (Clark's Cat.) CoRALLORHiZA, Hallcr. Coral root. 700 odontorhiza, Nutt. 701 innata, R. Br. (Lea's Cat.) 702 multiflora, Nutt. (Lea's Cat.) Aplectrum, Nutt. 703 hyemale, Nutt. Puttyroot. Adam and Eve. Cypripedium, L. 704 pubescens, Willd. Larger Yellow Lady's Slipper. (Clark's Cat.) 705 spectabile, Swartz. Showy Lady's Slipper. (Clark's Cat.) AMARYLLIDACE^. Hypoxis, L. 706 ex'ecta, L. Star grass. IRIDACEJE. Iris, L. 707 versicolor, L. Larger Blue Flag. (Clark's Cat.) SlSYRINCHIl'M, L. 708 Berniudiana, L. Blue-eyed Grass. DI0SC0REACE.5:. DioscoREA, Plumier. 709 villosa, L. Wild Yam root. 60 Cincinnati Society of Natural History. SMILACE^. Smilax, Tourn, 710 rotuudifolia, L. Common Greenbrier. 711 glauca, Wait. 712 tamiioides, L. (Clark's Cat.) 713 hispida, Muhl. 714 herbacea, L. Carrion Flower. LILIACE^. Trillium, L. 715 sessile, L. 71G recurvatum, Beck. 717 erectum, L., var. declinatura, Gray. Purple Trillium. 718 cernuum, L. NoddingTrilliura. Wake Robin. Melanthiu.m, Gronov., L. 719 Virginicum, L. Bunch Flow- er. (Clark's Cat.) Cham^lirium, Wilkl. 720 luteum. Gray. Blazing Star. (Clark's Cat., as Helonias di- oica, L.) UVULARIA, L. 721 grandiflora, L. Bellwort. Smilacina, Desf. 722 racemosa, Desf. False Spike- nard. POLYGONATUM, Toum. 723 blflorum. Ell. Smaller Solo- mon's Seal. 724 giganteura, Dietrich. Great Solomon's Seal. Asparagus, L. 725 officinalis, L. Garden Aspar- agus. LiLIUM, L. 726 Canadense, L. Wild Yellow Lily. (Clark's Cat.) 727 superbum, L. Turk's -cap Lily. (Clark's Cat.) Erythronium, L. 728 American urn. Smith. Yellow Adder's Tongue. 72!) albidum, Nutt. White Dog's- tooth Violet. SciLLA, L. 730 Fraseri, Gray. Eastern Qua- mash. Wild Hyacinth. Allium, L. 731 cernuum. Roth. Wild Onion. 732 tricoccum. Ait. Wild Leek. (Clark's Cat.) 733 Canadense, Kalm. Wild Gar- lic. (Clark's Cat.) JUNCACE^. LuzuLA, DC. 734 campestris, DC. Wood Rush. JUNCUS, L. 735 eff"u«us, L. Common or Soft Rush. (Clark's Cat.) 736 marginatus, Rostkovius. 737 tenuis, Willd. 738 acnminatus, Michx. (Clark's Cat.) 739 scripoides, Lam. (Clark's Cat.) PONTEDERIACE^. Heteranthera. Ruiz and Pav. 740 reniformis, Ruiz and Pav. Mud Plaintain. (Clark's Cat.) Sciiollera, Schreber. 741 graminea, Willd. Water star Grass. (Clark's Cat.) COMMELYNACE^. COMMELYNA, Dill. 742 Virgin;ca, L. (Mr. T. W. Spurlock,Mr. J. L. Taylor.) Tradescantia, L, 743 Virginica, L. Co m mo n spiderworc. 744 pilosa, Lehm. CYPERACE^. Cyperus, L. Galingale. 745 flavesccns, L. (Clark's Cat.) 746 diandrus, Torr. 747 inflexus, Muhl. (Lea's Cat.) 748 phymatodes, Muhl. 749 strigosus, L. 750 Lancastriensis. T. C. Porter. (Mr. J. L. Taylor.) Kyllingia, Rottboll. 751 pumila, Michx. DuLicHiuM, Richard. 752 spathaceum, Pers. (Clark's Cat.) Eleocharts, R. Br. Spike Bush. 753 obtusa, Scliultes. 754 palustiis, R. Br. Lea's Cat.) 755 intermedia, Schultes. 750 tenuis, Schultes. (Lea's Cat.) 757 acicnlaris, R. Br. (Lea's Cat.) Catalogue of Flowering Plants, Ferns and Fungi. 61 SciKrrs, T.. Bull rush. Club rush. 758 pungpins, Vahl. 759 validus, Vahl. Great Bull- brusti. 760 atrovirens,Muhl. (Clark's Cat.) 761 polyphvllus, Vahl. 762 lineatus, Michx. 763 Eriophoruni, Michx. Wool Grass. (Clark's Cat.) FiMBRisTYLis, Vahl. 764 autumnalis, Roein and Schult. (Lea's Cat.) Carex, L. Sedge. 765 polvtrichoides, Muhl. (Lea's Cat.) 766 Willdenovii, Schk. (Lea's Cat.) 767 Steudelii, Kunth. 768 bromoides, Schk. (Lea's Cat.) 769 teretiuscula, Good. (Lea's Cat.) 770 decomposita, Muhl. (Lea's Cat.) 771 vulpinoidea, Michx. 772 stipata, Muhl. (Lea's Cat.) 773 sparganioides, Muhl. (Clark's Cat.) 774 cephalophora, Muhl. 775 Muhlenbergil, Schk. (Lea's Cat.) 776 rosea, Schk. 777 stellulata, L. (Lea's Cat.) 778 sooparia, Schk., var. 779 Muskiugumensis, Schw. (Lea's Cat.) 780 lagopodioides, Schk., var. cristata, Carej'. (Lea's Cat.) 781 straminea, Schk., var. festuca- cea, Gray. (Lea's Cat.) 782 stricta. Lam. (Lea's Cat,) 783 criiiita, Lam. (Lea's Cat.) 784 Shortiana, Dew, 785 granularis, Muhl. (Lea's Cat.) 786 grisea, Wahl. (Lea's Cat.) 787 Davisii, Schw. & Torr. (Lea's Cat.) 788 gracilliraa, Schw. (Clark's Cat.) 789 virescens,Muhl. (Clark's Cat.) 790 triceps, Michx. 791 Careyana, Torr. 792 laxiliora, Lam. var. int e r ra e d i a , Boot. • (Clark's Cat.); var. blauda, Gray. 793 oligocarpa, Schk. 794 Hitchcockiana, Dew. (Lea's Cat.) 795 Pennsylvanica, Lam. 796 varia, Muhl. 797 pubesceiis, Muhl. (Clark's Cat.) 798 miliacea, Muhl. 799 filiformis, L. (Lea's Cat.) 800 lanuginosa, Michx. (Lea's Cat.) 801 riparia, Curtis. (Lea's Cat.) 802 comosa, Boott. (Lea's Cat.) 803 Pseudo-Cyperus, L. (Clark's Cat.) 804 hystricina, Willd. 805 tentaculata, Muhl. 806 intumescens, Rudge. 807 Grajni, Carey. (Lea's Cat. 808 lupulina, Muhl. (Clark's Cat.) 809 squarrosa, L. (Clark's Cat.) 810 stenolepsis, Torr. 811 utriculata, Boott. (Lea's Cat.) GRAMINE^. Leersia, Solander. 812 Virginica, Willd. White Grass. (Clark's Cat.) 813 oryzoides, Swartz. Rice Cut Grass. ZizAxiA, Gronov. 814 aquatica, L. Indian Rice. (Mr. T. W. Spurlock.) Aloi'Ecukus, L. 815 pratensis, L. Meadow Fox- tail. (Clark's Cat. Phleum, L. 816 pratense, L. Timothy Grass. Agrostis, L. 817 perennans, Tuckerm. Thin- Grass (Lea's Cat.) 818 scabra, Willd. Hair Grass. (Clark's Cat.) 819 vulgaris, With. Red Top. 820 alba, L. White Bent Grass. CixxA, L. 821 arundinacea, L. Wood Reed Grass. MuHLEXBERGiA, Schrcber. 822 sobolifera, Trin. (Lea's Cat.) 823 Mexicana, Trin. 824 Willdenovii, Trin. (Clark's Cat.) 825 diffusa, Schreber. Nimble Will. (Clark's Cat.) 62 Cincinnati Society of Natural History. Eleusine, Gsertn. 826 Iiidica, Gaertn. Yard Grass. Crab Grass. Tricuspis, Beauv. 827 seslerioides, Torr. Tall Red Top. DiARRHENA, Raf. 828 Americana, Beauv. (Clark's Cat.) Dactylis, L. 829 glomerata, L. Orchard Grass. Eatonia, Raf. 830 obtusata, Gra}'. (Lea's Cat.) 831 Pennsylvanica, Grav. (Mr. T. W. Spurlock.) Glyceria, R. Br., Trin. 832 nervata, Trin. Fowl Meadow Grass. 833 fluitans, R. Br. (Lea's Cat.) FoA, L. 834 compressa, L. Wire Grass. 835 pratensis, L. Kentucky Blue Grass. S36 trivialiSjL. Rouo;hish Meadow Grass. (Clark's Cat.) Eragrostis, Beauv. 837 reptans, Beauv. 838 poasoides, Beauv., var. megas- tachya, Gray. 839 pilosa, Beauv. 840 capillaris, Nees. (Clark's Cat.) Festuca, L. 841 elatior, L. Meadow Fescue- (Clark's Cat.); var. praten- sis, Gray. (Lea's Cat.) 842 nutans, Willd. (Lea's Cat.) Bromus, L. 843 secalinus, L. Cheat or Chess. 844 racemos\is, L. Upright Chess. 845 ciliatus, L., var. purgans, Gray. IJmola, L. 846 latifolia, Michx. Spike Grass. (Clark's Cat.) Elymus, L. Wild Rye. 847 Virgiuicus, L. (Mr. T. W. Spurlock.; 848 Canadensis, L. (Clark's Cat.) 849 striatus, Willd. (Clark's Cat.) Gymnostichum, Schreb. 8.50 Uystrix, Schreb. Bottle Brush Grass. Danthoxia, DC. 851 spicata, Beauv. AVild Oat Grass. ARRHEXATHERrM, Beauv. 852 avenaceum, Beauv. Gat Grass- (Lea's Cat.) Anthoxanthum, L. 853 odoratum, L. Sweet Venal Grass. (Clark's Cat.) Phalaris, L. 854 aruiidiiiacea, L. Reed Canary Grass. (Clark's Cat.) Paspalum, L. 855 fluitans, Kunth. (Lea's Cat.) Panicum, L. 856 sanguinale, L. Common Crab or Finger Grass. 857 proliterum. Lam. 858 eapillare, L. Old Witch Grass. 859 latifolium, L. (Clark's Cat.) 860 dandestinum, L. 861 dichotomum, Muhl. (Clark's Cat.) 862 depauperatum, Muhl. (Clark's Cat.) 863 Crus-galli, L. Barnyard Grass. Setaria, Beauv. 864 glauca, Beauv. Fox tail. 865 viridis, Beauv. Green Fox tail. Bottle Grass. Erianthus, Michx. 866 alopecuroides, Ell. Woolly Beard Grass. (Mr. F. W. Langdon.) Andropogon, L. 867 Virginicus, L. (Clark's Cat.) 868 macrourus, Michx. (Clark's Cat.) Sorghum, Pers. 869 nufans, Gray. Indian Grass. Wood Grass. EQUISETACE.^E. Equisetum, L. 870 arvense, L. Common Horse- tail. 871 sylvaticum, T>. (Mr. .1. L. Taylor.) Catalogue of Flowerim] Plants, Ferns and Fungi. 63 872 limosuni, L, 873 robustum, Braun. (Lea's Cat.) 874 hj'emale, L. Scouring Rush. (Clark's Cat.) FILICES. POLYPODIIM, L. 875 incaiium, Swartz. (Mr. F. W. Langdon, Dr. R. M. BiMMies.) Adiantum, L. 876 pedatum, L. Maidenhair. Pteris, L. 877 aquilina, L. Common Brake. (Clark's Cat.) ASPLEXIUM, L. 878 Trichomanes, L. (Delhi, Dr. Rofelty. ) 879 ebeneum, Ait. 880 angustifolium, Michx. 881 thel3'pteroides, Michx. 882 Filix — foemina, Bernh. C AMPTOsoRus, Link. 883 rhizophyllus, Link. Walking Leaf. (Clark's Cat.) Phegopteris, Fee. 884 hexagonop;era, Fee. Beech Fern. AspiDiuM, Swartz. 885 Thely pteris, Swartz. 886 Xoveboracense, Swartz. (Lea's Cat.) 887 Goldianum, Hook. (Lea's Cat.) 888 ra.arginale, Swartz. (Clark's 889 acrostichoides, Swartz. Shield Fern. Cystopteris, Bernhardi. 890 bulbifera, Bernh. Bladder Fern. 891 fragilis, Bernh. Onoclea, L. 892 sensibilis, L. Sensitive Fern. OSMUNDA, L. 8f3 regalis, L. Flowering Fern. (Mr. S. T. Carley.) 894 Claytoniana, L. (Mr. A. G. Weatherby, Mr. T. W. Spur- lock.) 895 cinnamomea, L. Cinnamon Fern. (Clark's Cat.) BoTEYCHiuM, Swartz. 896 Virginicura, Swartz. 897 ternatum, Swartz., var. luna- roides (Mr. S. T. Carley); var. obliquum, Gray (Mr. S. T. Carley); var. dissectum, Gray (Mr. S. T. Carley). Ophioglossum, L. 898 vulgatum, L. Adder's Tongue. (Prof. John Hussey.) CHARACE^. Chara, L. 899 flexilis, Willd. (Clark's Cat. FUNGI COLLECTED IK VICINITY OF CINCINNATI. By Thomas G. Lea, Agaricus, Linn. 1 virosus, Fr. Epicr. Waynesville. 2 pantherinus, DC. Cincinnati, 3 rubescens, Pers. Waynesville. 4 vaginatus, Bull. Cincinnati. 5 procerus. Scop. " 6 raastoideus, Fr. Waynesville, 7 acutesquamosus, Weinn. " 8 clypeolarius. Bull. Cincinnati, Waynesville. 9 melleus, Vahl, Cincinnati. 10 nebularis, Batsch, " 11 ochro-purpureus, Berkl. Cin- cinnati, Waynesville. 12 phyllophilus, Pers. Waynes- ville. 13 illudens, Schwein. Cincinnati, Waynesville. 14 cyathiformis, Bull, Waynes- ville. 15 pruinosus, Fr. Waynesville. 16 laccatus, Scop. Cincinnati. 17 radicatus, Relh. " 18 lachnophyllus, Berkl. Waynes- ville. 19 velutipes. Curt. Cincinnati. 20 cirrhatus, Fr. Waynesville. 21 dryophilns, Bull. Cincinnati. 04 Cincinnati Society of Natural History. 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 Leaianus, Berkl. Cincinnati. Waynesvilie. galericiilatus, Scop. " filopes, Bull. Cincinnati. hseiiiatopus, Pers. Waynesvilie. muralis, Sow. Cincinnati. urabelliferus, L. Waynesvilie. campanella, Bat>ch. Cincin- nati, Waynesvilie. fibula, Bull. Waynesvilie. salignus, Pers. Cincinnati. pinsitus, Fr. Waynesvilie. mastrucatus, Fr. " algidus, Fr. " niger, Schwein. Cincinnati, Waynesvilie. bombyclnus, Schseff. Waynes- vilie. rhodopolius, Fr. Waynesvilie. chrysophseus, SchaefF. " clypeatus, L. " clurus, Fr. " squarrosus, Mull. Cincinnati. adiposus, Batsch. Cincinn;iti, Waynesvilie. mutabilis, SchasfF. Cincinnati. lanuginosus, Bull. Waynesv'e. dulcamarus, Pers. " pyriodorus, Pers. " auricomus, Batsch. " fastibilis, Pers. *' polychrou-!, Berkl. " sapineus, Fr. " vervacti, Fr. Cincinnati. semiorbicnlaris, Bull. Cin'ti. inquilinus, Fr. " furfuraceus, Pers. '• siligineus, Fr. Waynesvilie. mucidoleus, Berk. Cincinnati. crocophyllus,Berk.Waynesv'le. campestris, Linn. (D.L. James, Cincinnati.) sylvaticus, Fr. Waynesvilie. fabaceus. Berkl. " semiglobatus, Batsch. Cin'ti. fascicularis,Huds. Waynesvilie. sublateritius, SchaefF. Cin'ti. velutinus, Pers. Waynesvilie. stipatus, Pers. Cincinnati Fimiputris, Bolt. " canipanulatus, Linn. " Fr. COPRINUS, 67 fuscescens, Fr. 68 micaceus, Fr. ()9 nychthemerus, ville. 70 plicatilis, Fr. Cincinnati. Fr. Waynes- COUTINARIUS, Fr. 71 varius, Fr. Waynesvilie. 72 callochrous, Fr. Cincinnati. 73 caerulescens, Fr. Waynesvilie. 74 violaceus, Fr. •' Paxillus, Fr. 75 porosus, Berkl. Waynesvilie. 76 flavidus, Berkl. " Hygrophorus, Fr. 77 ceraceus, Fi-. Waynesvilie. 78 eburneus, Fr. " Lactarius, Fr. 79 zonarius, Fr. Waynesvilie. 80 pargamenu-, Fr. " 81 piperatus, Fr. " 82 vellereus, Fr. 83 vietu^, Fr. " 84 volemus, Fr. " 85 subdulcis, Fr. " 86 Calceolus, Berkl. " KussuLA, Fr. 87 nitida, Fr. Waynesvilie. Canthauellus, Adani>. 88 cibarius. Waynesvilie. Marasmius, Fr. 89 fusco-purpureus, Fr. Cin'ti. 90 erythropus, Fr. " 91 p3'rrhocephalus, Berk. Waynes- vilie. 92 nigripes, Fr. Waynesvilie. 93 Eotula, Fr. Cin'ti, " 94 clavcjeformis, Berk. " Lentinus, Fr. 95 Lecomtei, Fries. Cincinnati. 96 tigrinus, Fr. " 97 C3espitosus,Berk. Waynesvilie. 98 sulcatus, Berk. Cincinnati. 99 vulpinus, Fr. Waynesvilie. 100 pelliculosus, Fr. Cincinnati. Panus, Fr. 101 eonchatus, Fr. Cincinnati, Wa5Miesville. 102 stipticus, Fr. Cincinnati, Waj'nesville. 103 dealbatus, Berkl. Waynes- vilie. 104 augustatus, Berkl. Waynes- vilie. SCHIZOl'HYLLUM. 105 commune, Fr. Cincinnati). (n. I.. .Tames. Catalogue of Flowering Plants, Ferns and Fungi. 65 Lenzites, Fr. 106 betulina, Fr. Cincinnati, Wuynesville. 106* Cratiegi, Beikl. Cincinnati. Boletus, Fr. 107 subtoinentosu.*, L. Waj'nes- ville. 108 edulis, Bull. Cincinnati. 109 strobilaceus, Scop. Cincin- nati, Wayncsville. POLYPORUS, Fr. 110 ovinus, Fr. Waynesville. 111 radicatus, Scliwein. Waynes- ville. 112 leucomelas, Fr. Cincinnati. 113 arcularius, Fr. " 114 parviiius, Kiotrsch. " 115 Montao^nei, Fr. " 116 lentns, Berk. Waynesville. 117 Boiieheanus, Fr. Cincinnati, Waynesville. 118 fissus, Berkl. Waynesville. 119 elegans, Fr., var. nninmula- riiis. Cincinnati, Waynes- ville. 120 badius,Sch\veiii. Cincinnati. 121 lucidiH, Fr. Cincinnati, Waynesville. 122 Rhipidiuni, Berkl. Waynes- ville. 123 intybaceus, Fr. Cincinnati. 124 sulphureus, Fr. Waynesville. (D. L. James, Cincinnati.) 125 hypococcinus, Berkl. Waynes- ville. 126 niolliusculus, Berkl. Cincin- nati. 127 destructor, Fr. Cincinnati. 128 gilvus, Schwein. Cincinnati, Waynesville. 129 Isidioides, Berkl. " 130 adustus, Fr. 131 nio:ro-purpurascens, Schwein. Waynesville. 132 endocrocinus, Berkl. Waynes- ville. 133 galactinus, Berkl. WajMies- ville. 134 dryophilup, Berkl. Waynes- ville. 135 resinosus, Fr. Cincinnati. 136 pubescens, Fr. Waynesville. 137 conchifer, Schwein. " 138 fonientarins, Fr. Cincinnati. 139 applanatus, Fr. " 140 conglobatus, Berkl. " 141 cinnabarinus, Fr. Cincinnati, Waynesville. 142 radiatus, Fr. Cincinnati. 143 hirsutus, Fr. " 144 versicolor, Fr. " Wajaiesville. 145 parganienus, Fr. Cincinnati. 146 Sullivantii, Mont., var. poris pallidas, Waynesville. 147 virgineus, Schwein. Cin- cinnati. 148 niger, Berkl. Cincinnati. 149 obliquus, Fr. Waynesville. 150 ferruginosus, Fr. " 151 vulgaris, Fr. " 152 vitreus, Fr. " 153 tenuis, Schwein. Cincinnati. 153* scutellatus, Schw. (D. L. James.) Trametes, Fr. 154 lactea. Berk. Cincinnati. 155 sepium. Berk. Waynesville. D^DALEA, Fr. 156 ambigua, Berk. Cincinnati. 157 unicolor, Fr. Waynesville. 158 aurea, Fr. Cincinnati. 159 pallido fulva, Berkl. Cin'ti. Merulius, Fr. 161 tremellosus, Schrad. Cinci"" nati, Wajniesville. 162 incarnatus, Schwein. Cin'ti. 163 porinoides, Fr. Waynesville. Hydxum, Linn. 164 diffractum. Berk. Waynesville. 165 infuiidibulunijSwartz. " 166 repandum. L. " 167 zonatum, Batsch. Cincinnati. 168 adustum, Schwein. Waynes- ville. 169 flabelliforme, Berk. Cin'ti. 170 coralloides. Scop. Waynesville. 171 erinaceus, Bull. " 172 stratosum, Berkl. Cincinnati. 173 cirrhatum. " 174 Ohiense, Berkl. Phlebia, Fr. 175 cinnabarina, Schwein. Cin'ti. Ceaterellus, Fr. 176 lutescens. Fr. Thelephora, Fr. 177 palmata, Fr. Cincinnati. 178 Sehweinitzii. Pk.Waynesvillp. 179 cuticularis, Berkl. " ISO corrugata, Fr. Cincinnati. 66 Cincinnati Society of Natural History. 181 alba raarginata, Schweiii, Mss. Cincinnati. Stereum, Fr. 182 fasciatuiu, Fr. Ohio. 183 lobatum, Fr, Cincinnati. 184 striatum, Fr. Waynesville. 185 complicatum, Fr. Cincinnati, Waynesville. 186 bicolor, Fr. Cincinnati. 187 rubigiuosum, Fr. Cincinnati, Waynesville. 188 ragosum, Fr , Epic. Cincin- nati, Waynesville. CoRTicuM, Fr. 189 cinerascens. Berk. Cincinnati. 190 ochraceum, Fr. Waynesville. GUEPINIA. 191 spathularia, Fr. Cincinnati. Cyphella, Fr. 192 galeata, Fr. Cincinnati. SoLENiA, Pers. 193 ochracea, Hoffm. Cincinnati. Clavaria, L. 194 botrytes, P. Cincinnati. 195 flava, Fr. Waynesvile. 196 fuliginea, P. Cincinnati. 197 subcilis, Pars. Waynesville. 198 pyxidata, Pers. Cincinnati. 199 stricta, Pers. Waynesville. 200 pistillaris, L. " 201 niucida, Pers. Cincinnati. Calocera, Fr. 202 cornea, Fr. Cincinnati. Typhula, Fr. 203 muscicola, Fr. Cincinnati. Tremella, Fr. 204 lutescens, Pers. Waynesville. HiRNEOLA, Fr. 205 Auricula-Judie, Fr. (D. L. James, Cincinnati.) ExiDiA, Fr. 206 glandulosa, Fr, Cincinnati. Phallus, Linn. 207 D.'«moninm, Fr. Cincinnati. 208 impudicus, L. (D. L. James, Cincinnati.) TjYCoperdon, Tourn. 209 pyriforme, Schyeft'. Cincin- nati. 210 geramatum, Fr. Cincinnati. 211 giganteum, Batsch. (D. L James, Cincinnati.) Geaster, Mich. 212 striatus, DC, var. minor. (D. L. James, Cincinnati.) BovisTA, Dill. 213 nigrescens, Pers. Waynes- ville. Scleroderma, P. 214 vulgare. Fr. Cincinnati. Lycogala, Mich. 215 epidendrnm, Fr. (J. F. James, ( ?) Cincinnati.) FuLiGO, Hall. 216 varians, Sommf. Cincinnati. Leocarpus. Lk. 217 fragilis, Dicks. Cincinnati. Lepidoderma. 218 tigrinum, Schrad. Cincinnati. DiDYMiUM, Schrad. 219 rugulosum. Berk. Cincinnati. Stemonites, Gled. 220 fusca. Roth. Cincinnati. COMATRICHA, PrCUSS. 221 Friesiana, DeBy. Cincinnati. Lamphroderma, Rost. 222 physaroides, A. & S., var. siib- oeneus. Cincinnati. ACYRIA, Hill 223 punicea, P. 224 cinei'ea, Fl. Dan. Cincinnati. Hemiarcyria, Rost. 225 rubiformis, P. Cincinnati. 226 clavata, Pers. " Trichia, Hill. 227 nigripes, P. Cincinnati. 228 varia, P. " 229 chrysosperma, DC. Cin'ti. Cyatiius, Pers. 230 striatus, Haller. Cincinnati. 231 vernicosus, DC. (D. L. James. Cincinnati. Crucibulum, Tul. 232 vulgare.Tulasne. (D.L.James, Cincinnati.) Sph^ronema, Tode. 233 oxysporum, Bcrkl. Waynes- ville. Catalogue of Flowering Plants^ Ferns and Fungi. 07 DiPLODiA, Fr. 23i Mori, Berkl. Ciiieimiatl. Vermiculakia. 235 Dematiiini, Fr. Cincinnati. Cytispoka, Fr. 236 carbonacea, Fr. Cincinnati. Septonema, Corda. 237 spilomenm, Berli. Cincinnati, Waynesville. Spokidesmum, Linl{. 238 atrum. Link. Cincinnati. 239 cellnlosum, Fr. 240 concinnum, Berk. " PucciNEA, Per.«. 241 graininis Dec. Cincinnati, Waynesville. 242 aculeata, Schwein. 243 Circseae, Pers. Cincinnati. USTILAGO, Lk. 244 carbo, Tul. Cincinnati. Phragmidium. 245 obtusum, Lk. Cincinnati. Cystopus, De By. 24G Candidas. Lev. Cincinnati. Cronartium. 247 aselepiadeum. Kze., var. Tlie- sii, Berk. Cincinnati. ^ciDiuM, Pers. 248 epilobii, Dec. Cincinnati. 249 compositarum, Marb. 250 euphorbiae, Pers. 251 podophyllatum, Schwein. Cincinnati. 252 cimicifugatum, Schwein. Cincinnati. SCORIAS. 253 spongiosa, Fr. Cincinnati. TUBERCULARIA, Todc. 254 vulgaris, Tode. Cincinnati. FusARiuM, Link. 255 lateritiura. Nees. Cincinnati. Cladosporium, Link. 256 herbaruni, Lk. Cincinnati. Macrosporium, Fries. 257 pinguedinis. Berk. Cin'ti. 258 punctiforine, Berk. '' Dactylium, Ness. 259 roseuni, Lk. Cincinnati. OiDiuM. Link. 260 simile, Berk. Cincinnati. MORCHEELA, Dill. 261 esculenta, Pers. (D.L.James, Cincinnati.) Gyromitra, Fr. 262 esculenta, Pers. Cincinnati. Peziza. 263 Acetabulum, L. Cincinnati. 264 pustiilata, Pers. " 265 aurantia, Pers. " 266 occidentalis, Schwein. " 267 floccosa, Schwein. " 268 scutellata, L. " 269 leucostigma, Fr. " 270 coccinea, Jacq. (D. L. James, Cincinnati.) Helotium, Fr. 271 seruginosuin, Fr. Cincinnati. 272 citrinum, Batsch. " PsiLOPEZiA, Berk. 273 nummularia,Berk. Cincinnati. Patellaria, Fr. 274 carpinea, Berk. Cincinnati. Cenangium, Fr. 275 craterium, Fr. Cincinnati. 276 triangulare, Fr. " Glonium. 277 stellatum, Muhl. Cincinnati. Rhytisma, Fr. 278 punctatum, Fr. Cincinnati. Hysterium, Tode. 279 pulicare, var., angustatum, Fr. Cincinnati. 280 elongatum, Wahl. Cincinnati. DrcH^NA, Fr. 281 faginea, Fr. Cincinnati. Xylaria, Hill. 282 digitata, Ehrh. Cincinnati. 283 polymorpha, Pers. Waynes- ville. 284 Hypoxylon, Grev. Cincinnati. 285 carpophila, Fr. " PORONIA, Willd. 286 Pocula, Schwein. Cincinnati. Hypoxylon, Bull. 287 concentricum, Grev. Cin'ti. 288 coccineum. Bull. Cincinnati. 289 cohserens, Pers. " Cincinnati Society of Natural History. 290 rubio;inosuiii, Pers. 291 multiforme, Fr. Kentucky Hills, 4 miles from the Ohio River. Hypomyces, Tul. 292 lactilluorum, Schwein. Waynesvilie. USTULINA, Tul. 293 vulgaris, Tul. Cincinnati. DiATRYPE, Fr. 294 atropunctata, Schwein. 295 tinctor, Berk. Cincinnati. 296 disciformis, Hoffm. " EUTYPA, Tul. 297 spinosa, Pers. Cincinnati. 298 limaeformis, Schwein. "" Valsa, Fer. 299 fulvo-pruinata. Berk. Cin'ii. 300 Leaiana, Berk. 301 convergens, Tode. " 302 quaternata, Pers. " SpH/Eria, Hall. 303 confluens, Pers. Waynesvilie. 304 rhizogena. Berk. Cincinnati. 305 Maydis, Berk. " 30fi rhodomphala, Berk. " 307 aquilia, Tode. " 308 crinita, Pers. Cincinnati, Waynesvilie. 309 Bonibarda, Batsch. Cin'ti. 310 cocci nea, Pers. " 311 putaminum, Schwein. " 312 argvrostignia, Berk. •' 313 herbarum, P. " 314 niyriadea, Dec. " OxYGENA, Pers. 315 faginea, Fr. Cincinnati. MucoR, Mich. 31G ramosus. Bull. Waynesvilie. Antennaria, Link. 317 pinophila, Nees. Cincinnati. SCLEROTIUM. 318 semen, Tode. Cincinnati. 319 complanatum, Tode. Cin'ti. REVIEWS AND BOOK NOTICES. CouEs' " Birds of the Colorado Valley."* The appearance of another volnine on North American birds, from *he pen of so talented and versatile a writer as Dr. Coues, would be, under any circumstances, a matter of congratulation to the ornitho- logical world ; and in the present instance, owing to the popular and instructive nature of the work, is of almost equal interest to the general reader. Although bearing a sectional title, the work under consideration is not limited in its scope to the particular region whose name it bears, but is in addition, as stated on its title page, " a repositor}' of scien- tific and popular information concerning North American ornithology."" The volume at hand, being Pai't First of the work, opens with the very * Department of the Interior | United States Geological Survey of the Territories 1 F. V. Ilayden, U. S. Geologist-in-cliarKO | — | Miscellaneous Publications, No. 11 1 — | Birds of THK Colorado Vai-lky | A Repository of | Scientific and Popular Information | concerning | North American Ornithology | I5y Elliott Coues '■' '■' '■• | Part First | Passeres to LaJiii- dm I Bibliographical Appendix | Seventy Illustrations | — | Washington | Government Print- ing Office I 1878 (8vo— pp. xvi.— 807.) Reviews and Book Notices. 69 concise letter of trausmissal of the author, following which is a prefa- tory- note, by Dr. Hayden, explanatory of the scope and objects of the work. To this succeeds the text of the work proper, occupying five hundred and sixty-five pages, this portion of the work carrjdng the subject through the Passeres (Perching Birds) to and including the Laniidos (Shrikes). The biographical portion is especially full in respect to the birds inhabiting the region which gives the book its title ; the text is clear of all unnecessary technicalities, and the various families and species are treated of in that peculiarly attractive manner for which our author is so justly celebrated. These species are also accompanied by full descriptions in both Latin and English, making the work of per- manent value as a text book of the ornithology of that section. The subject of the synonymy of North American birds has here re- ceived the fullest possible attention, having been '' worked up anew from the very bottom, as a matter of original personal investigation admitting of nothing at second-hand.^' " Not only the birds of the Colorado Valley, but also all others of North America* are thus ex- haustively treated, their s^-nonymy and bibliography being at length placed upon a satisfactory basis." We are glad to observe thai the author's investigations into the synonymy of the various species, disturb the current nomenclature to a remarkabl}^ slight degree ; and as the work in this respect has been especially thorough, ornithologists may congratulate themselves that the "hard-pan'" of ornithological nomenclature has at last been reached, so far as the species here treated are concerned. In his " Excursus on the Names of Shrikes" (pp. 537-542), the author reviews, in a manner peculiai'ly his own, manj^ points of scien- tific and etymological interest, and restores to the genus the Linnaean name of Lanius, on what are probably indisputable grounds. Our species of Shrikes, therefore, will in future stand as Lanius, instead of Collurio or Collyrio, as most modern works have them. The generali- zation, on page 200, that " migration holds species true ; localization * In this connection, we note the absence of any reference to the synonymy and biblio- graphy of Regulus cuvieri. Pants airicapUlus (proper), Par us carolinensis, Parus Jiudsoni- cus, I'arus rufesc.ens., Sitta carolinensi.s, and Sitta pusilla. The first one hundred and ninety-two pages of the work, in which these should occur, were printed, as we are told in the preface, in 1876, '"for publication in a different connection," and the scope of the work afterward enlarged to comprehend the whole of Xorth America. This will proba- bly account for what might at first glance appear to be an oversight on the part of the author. It is to be hoped, however, that the publication of the remaining portion of the work will afford an opportunity to rectify these omissions. 70 Cincinnati Society of Natural History. lets them slip,'' is well sustained b}^ the facts cited, and is of interest in its relations to the question of the development of varieties and species, A most important feature of the work is the Bibliographical Appen- dix of two hundred and eighteen pages, comprising the " North Amer- ican section of the Faunal Publication Series," of the Universal Biblio- graphy of Ornithology, upon which the author has been for some years engaged. Here are arranged about fifteen hundred titles (incor- rectly stated by the author as " nearly or about one thousand,") em- bracing " a range of publications from the works of Wilson or Audubon down to the least note on the subject." The period covered ranges from the j^ear 1612 down to the latter part of 1878, with the titles ar- ranged " verbatim, literatim et punctuatim,''' in alphabetical order under each year. The value of this portion of the wurk is further enhanced by two indexes, one of authors, the other of localities, which greatly facilitate reference to the main bibliography, and the work closes with a copious index to the whole volume exclusive of the bil)liographical portion. As the author truly remarks, bibliography is always more or less defective, and it is not surprising that, in a work covering so much irround, a few errors and omissions occur. As regards Ohio ornithology, these are nearly all of minor importance, so far as our observation ex- tends ; a notable omission, however, being that of Dr. Kirtland's origi- nal list of Ohio birds (Ohio Geological Survey, 1838). Taken as a whole, the volume deserves the highest commendation, both as a model of bibliographical architecture, and as a most import- ant contribution to ornithological science ; and the publication of the remainder of the work, which we are Informed is nearly completed, will be looked forward to with a peculiar interest. F. W. L. voL.n t!%elfewwiliQ^Tftc Ciii,^'at\?N\dw^^iArrg. p^^^^ 1 J •^r-;:^'.*' StroTirid^e ^r. \M\, r.^ n^ I* LATE VII. PAGE. Enoploura balanoides, Meek. Figs. 1, la ami \b. Dors il, ventnil and lateral views, magnified to 2 dia- meters. Prof. Wetherl)y's collection. \c. Dorsal surface of 1«, enlarged to G diameters. Id, le and 1/. Di>rs:il, ventral and lateral views of Dr. Newton's spe- cimen. Natural size. Ig. Ventral view of Mr. Patterson's specimen. Natural size. LEPERDITIA RADI.\TA, • . . 9 Fig. 2. View of the two valves. Natural size. 2a. View of the interior of a left valve. 26. Right valve, enlarged to 3 diameters, showing the radiating strise. LEPERDITIA CREPIFORMIS 10 Fig. 3. View of left valve, enlarged to 14 diameters. 3(f. Profile section, to show elevation of ridge. LEPERDITIA UNICORNIS. 10 Fig. 4. View of left valve. Enlarged to 14 diameters. 4«. Profile view of left valve, showing height of tubercle. 46. Profile section. LEPERDITIA BIVERTEX, 11 Fig. 5. Lateral view of left valve. Enlarged to 14 diameters. 5a. A cardinal j)rofile in outline. Beyrichia persulcata, 12 Fig. 6. View of left valve. Enlarged to 16 diameters. Cyrtolites nitiduiats, 12 Fig. 7. A side view of a large specimen. Natural size. 7a. View of aperture and wliorls of same specimen. Microceras minutissimum 13 Fig. 8. A side view. Enlarged to 10 diameters. Cyci.ora depressa, 13 Fig. 9. View of a large specimen, mignified to 10 diameters. The engrav- ing presents the umbilicus too small. 9a. View of the spire. Enlarged to 6}4 diameters. Zygospira concentrica, 14 Fig. 10. Ventral view. Natural size. 10a. Dorsal view of same specimen. Enlarged to 2 diameters. 106 Profile view of same. Enlarged. Orthis(?) sectostriata, 15 Fig. 11. Ventral view of a small specimen. Natural size, llrt. Cardinal view. 116. Profile view. Lept.ena plicatella, 15 Fig. 12. Ventral view of an adult specimen. Natural size. 12a. Ventral view of same, magnified to 7 diameters. 126. Dors:d view of another example magnified to 7 diameters. 12c. Profile section of both valves. This figure is erroneous since in all the specimens e.xamined, the convexity is much greater than is here reiiresented. Heterocrinus genicitlatus,' 16 Fig. 13. Anterior view of a large specimen, now in the cabinet of Mr. J. Ralston Skinner. 13a. Posterior lateral view of a portion of a specimen, showing the position of the azvgos interradials. From the cabinet of Mr. J. G. Hine. 136. Posterior view of a specimen preserving only a part of the body and arms, and showing the ventral prolongation. 13c. Portion of an arm enlarged to 2 diameters. Dendrocrinus (?) ccrtus, 18 Fig. 14. Posterior view of the only specimen known. Pal.easter finei, , . . . 19 Fig. 15. Dorsal view of a specimen somewhat distorted by pressure. 15a. The madreporiform body enlarged to 6 diameters. 156. Ventral view of an arm enlarged to 3 diameters. Lepidolites elomgatus, 22 Fig. IG. View of an entire specimen, Lepidolites dickhauti, 21 Fig. 17. An entire specimen. 17a. Enlarged view of some of the imbricating plates. 176. Enlarged view of a specimen flattened vertically. PAGK. Orthodesma subovai.e, . . .22 Fig. 18. View of a large specimen. Tellinomya cingulata 23 Fig. 19. View of left valve. 19a. Interior of the same valve. NUCULITES YOLDIAFORMIS, 24 Fig. 20. View of left valve. PrERINEA MUCRONATA, 24 Fig. 21. View of the interior of a left valve. ,Cleidophorus ELLIPTICL'S, . . 25 Fig. 22. View of the left valve. Cleidophorus major, 25 Fig. 23. View of a east of tlie interior, showing the anterior and posterior museuliir scars. Ropalonaria venosa 26 Fi-f. 24. View ot a specimen growing npon a Streptelasma. 24a. A porlion of same magnified to 3 diameters. Ch^tetes compressus, 27 Fig. 25. Outline view of a frond of this species. 25a. A portion of tlie surface enlarged to 6 diameters. 25b. Longitudinal section enlarged to 53^ diameters. FiSTULIPORA FLABELLATA 28 Fig. 26. View of an entire(?) specimen. 26a. A portion of the surface enhirged to 6 diameters. 266. Longitudinal section enlarged to 6 diameters. INOCAUUS ARBUSCIILA, 28 Fig. 27. View of a small and entire example. Natural size. 27a. A part of same enlarged to 6 diameters. Crateripora lineata, 29 Fig. 28. A si»ecimen of the usual form and dimensions. 28a. A portion of same enlarged to 8 diameters. Crateripora erecta, 30 Fig. 29. View of a specimen of the medium size. 29a. One half of same enlarged to 8 diameters. PLATE VIII. Fig. 1. Poteriocrinus wetherbyi — Natunil size, 36 la. Anterior view, sliowing azygos interradials. 16. magnified viewof part of tlie proboscis, showing pectinated edges of plates. Fig. 2. Eupaciiycr[NOS spartarius— Anterior view, 38 2a. Posterior view. Fig. 3. EuPACHY'CRiNOS GERMx\NUS — Natural size, 40 Fig. 4, Lepidestiiesformoslis— Magnified two diameters, ... .41 The following are figured by Prof. A. G. Wetherby: Figs. 5 and 6. Views of interradial and axillary areas of Eucalyptocrinus crasSUS, showing the position of the arm-pores, and the base of the vault. Dr. R. M. Byrnes' collection. Fig. 7. Cast of interior of same species, showing processes for articulation of arms, and the axillary and interradial processes. Prof. Wetherby's collection^ Fig. 8. View of the summit of same species. Prof. Wetlierby's collection. Fig. 9. View of summit or cap-piece of vault of Pterotocrinus, showing upper side of same, and the to]) of the radiating canals communicating with the interior. Prof. Wetherby's collection. Fig. 10. Lateral view of the vault of Pterotocrinus, showing arm-jiores, grooves for the articulation of the inlcr-brachial rays, and the hooked processes at the bas(> of the grooves. Prof. Wetherby's collection. Fig. 11. Radial diagram of Pterotocrinus depressus, Lyon and Casseday. From specimen in Prof. Wetherby's collection. Fig. 12. Transverse section of vault of Pterotocrinus, Sp., showing arm-pores communicating with interior cavity, and the canal extending to the summit of the vault. Prof. Wetherbv's collection. VOLU, Myi^i u irnra i :rf %€itt,,S'^rx;l^%4mul ^fek^. Plate,8. S£ 'iii 1 a f^ f.y aao ), J. %^ ^C^°'1m'-? S-lrobnd^e 4 Co Lith Cm 0 . THE JOURNAL llill lim OF ilDEil HUM, VOL. II. CINCINNATI, JULY, 1879. No. 2. ANNUAL ADDRESS OF V. T. CHAMBERS, ESQ., PRESIDENT CINCINNATI SOCIETY OF NATURAL HISTORY. Gentlemen : It has become a custom with scientific societies to re- quire of their presidents, on retiring from office, an address upon some appropriate subject. When the president is a man of science, and competent to the fulfillment of the task, the custom is a good one ; otherwise it is, perhaps, more honored in the breach than the observ- ance. Not claiming for myself any so pretentious title as that of scien- tist, and belonging to that class alread}^ numerous, and becoming- each 3-ear more numerous, who find in scientific pursuits a profitable and agreeable occupation for such portion of their time as can be spared from business avocations, I must beg your indulgence if I shall not be able to afford you either that amount of instruction or interest which 3'ou might derive from an address by one more compe- tent than I am to meet the requirements of m}' present position; and I must also remind you that the position was not sought by me, and therefore if I shall fail to interest you, you will have no one to blame but 3^ourselves who have devolved this dut}^ upon me. 72 Cincinnati Society of Natural History. I have been somewhat at a loss for a subject for this address. The history- and condition of our Society are so fully given in the pages of its Journal, that any further reference thereto would be de trop; and my limited time and limited facilities for keeping abreast of the cur- rent of scientific discoveries and thought, preclude me from entering upon even a synopsis of the history of science, or of scientific publica- tions during the past year. Indeed, the progress of scientific research, and the subdivision of labor among scientists, in our time, are so great that few of those who are notable to devote their whole time to science, are able to keep themselves fully informed of all that is being done even in any one special branch. An address upon an occasion like this, to a mixed audience of scien- tists, and of people who make no pretensions to science, ought to be of a general and semi-popular character, so as to afl^ord something of interest to all. But the question in the present instance is not what such an address ought to be, but what under the circumstances it 7nust be. And rather than venture upon subjects which a scientist familiar with them might make interesting to you, 1 have deemed it best to keep within the narrow limits of a specialt}' to which I have given some attention, and of which have some knowledge. I have ac- cordingly made choice of the subject of The Metamorphoses of In- sects AS Illustrated in the Tineid genus Lithocolletis of Zeller. Much that I may have to say will no doubt be familiar to some of you, though in such an audience as this, there are no doubt others to whom the whole subject is terra incognita. The word metamorphoses includes all those changes which an or- ganism undergoes in form and structure in the course of its develop- ment from the egg to maturity. In this sense all animals undergo metamorphoses. But in many animals these changes take place so gradually, that there is no sudden change of form, nor an}' process of ecdysis or moulting of the entire dermal integument. But it has a more restricted meaning, at least in common parlance, such as is given to it when people ordinarily talk of the metamorphoses of an Insect or Crustacean, meaning only those more marked changes of form and structure, which appear to be somewhat sudden, and are accompanied by ecd3^sis or shedding of the skin, as when the caterpillar changes to the chrysalis, and the latter to the butterfly, or when a larva passes from one stage to another of larval life. These changes are observed to be not only apparently sudden, and accompanied by a moult of the in- tegument, but they are also periodical, and have a definite relation to the amount of food consumed in each stage, and to the temperature of Annual Address of V. T. Chambers^ Esq. 73 the medium in wliicli the organism lives; and the}' are accompanied by well marked changes in the internal structure of the animal. But be- sides the influence of food and temperature there appears also to be an unknown factor which directs the course of development, and holds in subordination the influences both of food and temperature. The number of moults which insects undergo varies in diff"erent species, and sometimes (under the influence of the unknown factor to which I have alluded) even in the same species. Thus, according to Sir J.Lubbock, Chloeon dimidiattcm, a, neuropterous insect, moults seven- teen times ; whilst some of the smaller Lepidoptera moult only once in the larval state, once passing into the pupa, and again into the moth or imago as is the case in the genus PhyLlocnistis; and some as in the genus Nepticula, moult onl}- twice; once when the larvae becomes a pupa, and again when the pupa becomes a moth. The usual number of skin sheddings among Lepidoptera however is six, including those by which the pupa and the imago are disclosed. But there are many exceptions to this rule. Thus the larvee of Sphinx h'gicstris, according to Newport, moults six times (but it ma}- be possible that Newport includes in this number the moult of the larva into the pupa state) ; and Cuvier states that the \avva. of Arctia caja moults five to ten times. It is possible, as Dr. Packard has already suggested, in a note in " Nature^''' that there is some error in this statement. Rennie and Westwood, in their "• Insect Transformations," state that caterpillars generally moult five times, but sometimes seven or even ten times. Some confusion as to the number no doubt has grown out of the fact that some authors include the moult by which the caterpillar passes into the pupa state, whilst others exclude it. Including this moult, the ordinary number is five; that is, there are ordinarily five stages of larval life. Mr. H. "W. Edwards has recently, in the pages of the Canadian Entomologist and of Psyche, published mau}^ valuable observations on the life histories of our American butterfiies, from which it appears that in Phyciodes tharos, and in P. nycteis, Danais ai-chipjnis^ ■- atyrus nephele, Lyccena pseudargiolus, Neonympha sosybius, and iV. eurythis, there are five stages; and in Limenitis arthemis, and L. dystpjnis, six whilst in Ccenonympha gemma there are onl}' four. According to Lintner the larva of the moth, Ceratomia quadrico7'nis, passes through five stages; and according to Kirb}^ there is the same number in Apatura celtis, and in the female of Orgyia leucostigma, whilst there are only four in the male; and Hemilenca maia is said "to be one of the few larvse which passes through" six stages. In Hyperchiria lo t>here are six stages; in Tliyridopteryx ephemeroi formis only four. 74 Cincinnati Society of Natural History. Accordino- to Mr. Riley iu Clisiocampa americana, Platysamia cecropia, Callosamia promethea, Telea polyphemus and Antherce yamamai there are five stages; whilst in Anisopteryx vernata, Anisota rubicunda and Paphia gly cerium there arc only four; and I believe that Mr. Healy records the same number in the Tineid moth Gracil- laria syringella. According to my own observations, there are in the Tineid moths of the genera Antispila and Aspiclisca only two larval stages, in Tischeria five, and as more fully detailed hereafter there are seven in Lithocolletis. The number of larval stages among Lepidoptera therefore ranges from one to seven, or even ten if the statement as to Arctia caja is correct. I have alluded to the apparent suddenness of the metamorphoses of Lepidoptera. In fact the changes are not so sudden as they appear to be. Concealed within the integument changes have been gradually accomplished, which only became apparent on the sloughing off of the old skin, and these changes have been brought about simply by the rapid growth of some parts, and the arrest of growth or absorption of other parts. They diff'er from the changes which are observed in the development of a vertebrate, chiefly in their periodicity, and in the casting of the skin, whereby they are made evident: but they are as much the result of growth and absorption as are the metamorphoses of a froo". That which makes the metamorphoses of an insect peculiarly striking, is its apparent suddenness, and its periodicity, especially the former, accompanied as it is by a moult of the integument, whereby a being is disclosed often so widely dift'erent from the lorm in which it had just previously appeared. Various hypotheses have been suggested to account for the phenome- non of a sudden and complete cast of the integument. It has been suggested that the skin of the larva ceases to grow, and becoming too small for the contained animal, it is cast ofl", but no explauation is given by this hypothesis why the entire skin ceases all at once to grow, while the growth of the animal continues; nor wh'y, nor how, the animal becomes separated from its skin ; and this explanation leaves entirely out of view the periodicity which we shall see characterizes the phenomenon, and its relation to temperature, and quantity of food consumed. Buvmeis- ter in his manual suggests that the skin becomes too (\v\. and is there- fore cast off: but he saw himself that such an explanation wou.d explain nothing, and was not at ail applicable to larva? living in water; and besides it is open to all of the objections urged against the preced- ing hypotheses. The distinguished author of the " Guide to the Study Annual Address of V. T. Chambers, Esq. Ih of Insects," seems to think that there is nothing more remarkable about the metamorphoses of insects than about those of man, each being a mere process of growth and development. But in man there is no cast of the entire integument which occurs periodically in in- sects. No satisfactory explanation of the metamorphoses of either verte- brates or articulates has ever been given, or perhaps ever will be given. The inquirj' simply resolves itself into the question, wh}' growth and development are what we see them to be, instead of being something else, we know not what — perhaps a mere formless mass of cells. Prof. A. M. Duncan [Nature, v. 7, p, 30) states that "the skin- sheddings (of insects) have a definite relation to the increasing size of the insect, but they are not simple changes of skin, because the old one has become too light for its rapidly growing possessor. They ac- company certain important changes within the insect.'' And the facts which he gives as to the structure of the intestinal canal, support his statement, as also do those subsequently to be given in this address as to certain other organs, in which also the exact relation of the "skin- sheddings" to the increasing size of the larvge of Lithocolletis will be made evident. These facts, or rather facts of the same character as these presently to be given as to Lithocolletis, have at various times been stated with reference to other insects. Thus H. S. Edwards states that the larva of Phycoides tharos, in its first stage, measures in parts of an inch .06 in length, in its 2d stage .22, in the 3d .45, and in the fourth form .85 to .90; that is the larva in each stage is about twice as long as it was in the preceding stage. He also states that the larva of Satijrus nephele in its several stages measures respectively .1, .16, .30, .44 and .95 to 3.2 in length. An approach to a regular ratio of size in the several stages is here apparent, but it is not so distinct as in P. tharos. Just here I will add that the larvae of Lithocolletis, especially those of the group of flat larvjB, are more rigid, and less contractile than those of higher groups, and, there- fore, afford greater facility for measurement; and besides it does not appear from the observations of Mr. Edwards, or of the other authors whom I shall quote, exactly at what period of the respective larval stages the measurements were made. The measurements ought to be made at exactly corresponding periods of the several stages, and the best period is wdien the larvae has ceased to feed at the end of each stage, when the full growth for that stage has been attained. It is at that period that I have made the measurements of Lithocolletis here- after detailed. 76 Cincinnati Society of Natural History. In Neonymplia sosyhius, according to Edwards, the lengths in the respective stages are in parts of an inch, .09, .2, .36, .42 and .56. Here in the first three stages the ratio of growtli is near!}- the same. In Ly- ccena jjseudargiolus, Edwards gives .04, .1, .14, .25 and .36. Here also the ratio only appears in the first three stages. In JSfeonympha eury- tris, Edwards gives .08, .16, .24 (thus far very regular) then .44, grow- ing to 1,0. In Coenonympha gemma, .18, .34, .55, an approximate reg- ularity. In PJiyciodes nycteis, .06, .18, .24, .34 and .50. In most of these instances very nearly the same ratio of growth is preserved through the first three stages. According to Lintner, Ceratomia quad- rico7'nis, when it leaves the egg, measures .2, at its first moult it has doubled this length and measures .4, at the 2d .6, at the 3d one inch, and in its last stage grows from 1,6 to 2.75 or even to 3.25. Accord- ing to Prof. Fernald, Platysam.ia cecropia measures 15, 20, 35 and 50 millimeters in its several stages. So many of these instances and many others which might be cited, show either a regular ratio in the length of the several larval stages, or at least a near approach thereto, that we are tempted to think that when the ratio seems to fail it does so rather because the larvae were not measured at exactl}^ corresponding periods of the several stages, or because the elongation or contraction of the larvce prevented the ratio from appearing to be so regular as it reall}' Avas, and that it would have been more evident had the measurements been taken from the moulting larvae at the end of each stage. As to the quantity of food consumed in each stage, I have few data apart from my own observations upon Lithocolletis. Count Dandolo, as quoted by Rennie and Westwood {loc. cit.), states that a silk worm just hatched measures 1 line in length; after its 1st moult, 4 lines; after the 2d, 6 lines; after the 3d, 12 lines; after the 4th, 20 lines; and grows to 40 lines before the 5th moult, when it passes into the pupa state. Here is again an approximation to the regular ratio of growth of the several stages; but it does not appear how long after each moult the measurements were made. Dandolo gives the quantity of food con- sumed b}'' the silk worm in each stage as follows: In the 1st stage, 6 lbs; in the 2d, 18 lbs; in the 3d, 60 lbs; in the 4th, 180 lbs; and in the 5th, 1,098 lbs. Here the quantity of food consumed in each stage was almost exactly three times as much as in the preceding stage, until the last stage when it is six times as much. As will be seen hereafter in Lithocolletis, the larvae in each stage consumes, as nearly as it can be ascertained, exactly three times as much as it did in the preceding staoe. Annual Address of V. T. Chambers^ Esq. 11 As to the peiiod of duration of each stage, we shall find, also, that there is great regularit3\ but it is here that the influence of temper- ature is most distinctly felt. Going over the same species above mentioned, and on the authority of the same authors, I find that P. tharos passes 6 days in the egg, 22 in the larva, and 5 in the pupa state, or varying with the season and temperature, 4 in the egg, 22 as larva, and 7 as pupa ; the duration of the egg and pupa together is half that of the larva. But of larva? hatched in the fall, Mr. Edwards found that the time passed in the egg was 5 days, as larva 26 to 37, and as pupa 30 or more days, according to temperature. An effect, perhaps, of the unknown factor I have referred to, was that whilst the general course of development was as above given, yet such larvte as hibernated underwent one more moult than those which passed through all their changes in the same season, perhaps though this was the effect of temperature. The larval life of Z>a»fa'5 arcMppiis lasts from 17 to 25 days, according to temperature. The first larval stage of CKnonympha gemma lasts 6 days in April and August, and 9 in October ; the 2d stage lasts 7 days in May, five in August and 10 in October ; the 3d, 5 days in August and 8 in May, and the 4th stage lasts 10 days in August, including two days spent in moulting. Here the larval life extends over such a period, and the duration of the several stages is so complicated by the effects of varjang temperature, that it is impossible to determine how nearly of the same length the several stages would be under the same conditions. Phyciodes nycteis passes 8 da^'s in the first stage in July, and 10 in June ; the 2d stage lasts 4 or 5 days; the 3d, three days; and the 4th three to five days; these variations as in the former case depending upon temperature- But here appears the influence of the " unknown factor," which con- trols the influence of food and temperature. Mr. Edwards states that some larvte of each brood, the early as well as the later ones, ceased at various times to feed and to grow; their development was arrested, and larvae of all the broods spent the remainder of the season, and hiber- nated, in Various stages, and underwent the remainder of their trans- formations the following ^^ear: whilst others passed on regularly through all their stages in the same .year. Something very similar to this occurs, also, with some larvae of Lithocolletis, as will be shown presently. Such instances as those above cited show the effect of temperature, but do not so well illustrate the relative lengths of the different stages. But Mr. Gentr}' states that the first moult of the larva of PZc/^?/saw«,'cT cecropia took place June 10th; the 2d, June 18th; the 3d, June 26th; 78 Cincinnati Society of Natural History. and the 4th, July dth. Each of these stages lasted eight da^-s ; but the larva did not begin to spin its cocoon until Juh* 21st, so that the last stage lasted about as long as an}- three of the previous stages. Phyciodes tharos passes (Edwards states) 5 to 6 days in its 1st stage, and the same in its 2d, three days in the 3d stage in summer, but 7 to 14 days in the fall, three to five days in the 4th stage, four to six daj s in the 5th stage, and 6 to 13 days as pupa, unless "retarded by cold." In Satyrus nephele the larva hibernates in the first stage, passes 23 days in its 2d stage in spring, 14 days each in its 3d and 4th stages, and twice fourteen in the 5th, and 14 again as pupa. These instances might be multiplied indefinitely. They show an approach to a regular period for the duration of each stage; and that there is a regular ratio between the duration of the several stages. But in all of these cases the larvae ma}- be called long lived; so that thej- are exposed to cliange of seasons, and vicissitudes of temperature. These larvse also feed externallj^ on vegetation. That food and tem- perature do exercise an influence on growth and development every body knows ; and, therefore, we see that larvte which are so much ex- posed to changes of these influences, can not so well display- the periodic character of their metamorphoses as larvae, which are shorter lived, and therefore less exposed to be influenced b}^ changed conditions of life. Besides these comparatively large larvae feeding externally, and needing to haye their food constantly- renewed, can not be so well supplied with appropriate nourishment as larvae, which pass more rapidly through their changes, and live inside of leaves, where nature has supplied them with an abundance of their appropriate food, and which only require therefore to be confined in a moist chamber for a few days without change of food or temperature. The leaf mining- larvae are for these reasons better fitted for accurate observations of this character than the larger larva? of Butterflies, and from observations on them I arrive at conclusions which are indicated, but not, perhaps, fully established by such cases as 1 have called your attention to. These conclusions are that food and temperature remaining the same, there is a fixed period in each species for the duration of each stage ; that usually in each species all larval stages are of the same length ; that an alteration of food or temperature, or both, usnall}' alters the duration of each stage, but does not always do so; that is, that usually a given amount of food, and a temperature, which is fixed for each species, produces an amount of growth and development, which necessi- tates, and in some wa}' produces, a shedding of the skin ; but that occa- sionally^ another force manifests itself in overruling the eflect of food Annual Address of V. T. Chambers, Esq, 79 and tempertiture, hastening or retarding the metamorphoses of the species; and that there is a regular ratio between the quantities of food consumed in the several stages of the same larvte; and another differ- ent ratio between the rates of growth in the several stages. These conclusions are indicated I think by such instances as I have already- cited, and are more fully establislied bj' observations on the life his- tories of the species of LithocoUetis now to be given. The genus LithocoUetis, as defined b}' Zeller, comprises numerous species of small moths, gaily ornamented with spots and marks, usual]}' of silvery white, upon a ground color of gold, saffron, or reddish orange. The}^ are veiy small, rarely if ever reaching a body -length of l-3d of an inch, and agree \evy closely in form and structure with each other, so that it is impossible to separate them into an}^ well defined sub-genera or group. The larvae are, without exception, what are known as leaf miners ; that is, they mine or burrow in the parenchyma of leaves ; and each species feeds only in the leaves of a single species of plant, or at most in a very few closely related species, and very few if any ti ue species are known, the larvae of which feed in leaves of plants that are not closely related to each otlier. Unlike the moths, the larvae fall readily into three distinct groups, known as the flat larvae, the ornatella larvffi, and the CTlindrical larvae. The character of the flat group is given in the name of the group; thej' are greatly flattened, with the sides of the segments somewhat mamilated; and on top or bottom of most of the segments of the body, and sometimes on both surfaces is a macula, that is a spot or ring of darker hue than the remainder of the body. From each side of each segment of the body project three hairs, and just above these on the sides are two others. Their feet, both thoracic and ventral, ai-e membraneous, and are not armed either with the claw, which is usually found on the thoracic feet of caterpil- lars, or the circlet of tentacles, which usuall}^ arm the ventral feet. Their mouth parts, and form of the head, are represented at figure 1, and the mouth parts more highly magnified are shown at figure 2. The}' consist of the labium, which is divided into an upper and lower lobe (« lower, h upper), but while the mouth parts, or as they are technicall}' termed, the trophi, remain of this form, no labial palpi can be discovered ; the maxillae (e), or lower jaw, are placed just above the labium, uniting to form the floor of the mouth, but there are no maxillary palpi, unless they are represented by the small organs (rf); then there are the mandibles (e); and tlie spinneret (/), which extends along the surface of the labium beneath the floor formed b}-^ the united maxillte. This form of trophi lasts until the 5th moult, after which the 80 Cincinnati Society of Natural History. form of the head and trophi represented at figure 3 is assumed. The form is now very different, but consists of the same organ, with the ad- dition of the rudimentary labial palpi (r/). The antenna; are represented in figs. 1 and 3 at [h). In the first stage, the ocellus or pigment spot is single on each side of the head («), just behind the base of the antennae, but after the first moult, two e3'e spots appear on each side (as in fig. 1), and these continue to grow during the first five stages. In these five stages, owing to the form of the larva, and of its trophi, it eats only a few layers of cells of parenchyma next to the cuticle of the leaf, and therefore the size of the mine being ascertained, it is easy to determine not the weight but the comparative quantity of food taken in each stage. For further information as to the genus, I must refer to the various entomological publications of this country and Europe; and as connected more especiall}^ with the subject of my present remarks, I refer especially to some papers by me in the organ of the Cambridge Entomological Club, Psyche, for November and December, 1877, and May to August, 1878, and a note in a later number of the same volume. In those papers I stated that owing to the difficulty of making suitable observations on larvjfi concealed more or less in their mines, and which invariably die on being removed from their mines, I had not then been able to toUow any species through all of, its larval changes so as to observe its different moults ; but that b}^ collecting and observing large numbers of mines and larvfe, and examining and counting the cast skins in the mines, I had arrived at the conclusion, that the number of moults was eight, and could not be less than seven. Since then I have been more successful, and have traced the entire life histories of several species, and I find that the number of stages of larval life is seven. I stated also in Psyche, Iog. cit., that at certain moults, as I then believed at the 7th in the flat and ornatella groups, and at the 5th in the cylindrical group, a change in the form of the trophi from thai given at fig. 1 to that of fig. 3 took place. This change does take place; but it occurs at the 5th moult in the first two groups, and at the 3d in the cylindrical group. I also stated that it was at this change that the spinneret is first developed. This is in- correct. It then first becomes perfect, and previously is of no functional importance; but it may be discovered in a rudimentary con- dition in the first stage of larval life. I also then stated that at each moult the larva adds to its length, the length of the larva at the end of its first stage, and this is true of the first five stages, not of the remain- ing two. As stated, loc. cit., this rate of growth ceases at the moult at which the change takes place in the form of trophi, but as above just Annual Address of V. T. Chambers, Esq. 81 stated this is at the 3d and 5th moults in the respective groups, and not at the 5th and 7th as I then believed, I have stated, in a preceding- part of this address, that I have been unable to discover any trace of la- bial palpi until this change in the form of the trophi takes place. But it does not necessarily follow that they do not exist as mere rudiments or points of growth. Neither have I observed any trace of the sexual organs until that change takes place; nor of the wings until the last stage of larval life. Yet other observers of larvie of other insects have detected the genital organs at a much earlier stage, and also the rudiments of the wings. Indeed, so many of the organs of the future butterfly or moth have been detected in a rudiraentar}' condition, in its earliest stages, that it may well be doubted whether any such thing as de^'elopmeat, as distinguished from mere growth, takes place after the caterpillar leaves the egg; that is whether there is any differentiation of new pai'ts or organs after the caterpillar is excluded from the egg. After that, the carterpillar and its organs gro'.v; and at state 1 times some parts grow much more rapidly than others, and some are arrested in their growth. or are even absorbed, so that they can no longer be seen ; but it seems highl}^ probable that all the parts and organs of everj' future stage are present at least as rudiments or points of growth in the caterpillar when it leaves the egg. When one observes only the great and ap- parentl}' sudden change from larva to pupa, and from pupa to imago, it seems as if there has been all at once a great and almost entire change of form and structure. But when one watches the gradual transforma- tions of one of these semi-transparent larvse under the microscope, and sees that all of this apparently sudden change is accomplished hy a gradual though rapid growth of some parts, and the arrest or absorption of others, he is led to the belief that there has been no differentiation of anj' new organ, but that the whole change is accomplished simply by growth and absorption of already existing organs. Swammerdam long ago stated that he "could point out in the larva all the limbs of the future nymph or cnlex concealed beneath the skin;" and this statement is probably substantiallj' true, though its literal truth depends upon the period at which the observation is made. The}- can be " pointed out " in the last stage of larval life, but it would be difficult to point out some of them at earlier stages, how- ever much from analogy we may be inclined to believe that they nevertheless exist. Dr. Packard, in his " Guide to the Study of Insects," states that " the body of the larva is transformed into that of the imago; ring answering to ring, and limb to limb in both; the head of the one is homologous with that of the other, and the 82 Cincinnati Society of JSfatnral History. appendages of the larva are homologous with thase of the imago." In Lithocolletis, I have seen the head and its appendages of the forthcoming larva retracted from the corresponding parts of the skin that is about to be cast. I have seen a larva cease to feed, and when no trace of the contained larva of the next stage could be detected in it, then the skin of the contained larva was gradually loosened from the old skin, and the antennae, tropin, and legs of the forthcoming larva were gradually retracted from their corresponding parts of the old skin; and at the fifth moult the antennae of the pupa (and imago), as long as the body of the insect, and composed of a multitude of joints, either of which is as large as the entire antennae of the larva, are nevertheless withdrawn from the antennae of the larva. Part b}^ part, and organ by organ, I have under the microscope, in these small larvae, seen the external parts and organs of each stage withdrawn from the corresponding parts and organs of the preceding stage. Each organ, when it is so withdrawn, differs at first but little in form or size from the part from which it is withdrawn, and within which it was formed, but the}^ grow rapidly, and in a few hours I have seen the long and many-jointed antennte of the pupa grow from the mere rudiment, as it were, which was withdrawn from the larval an- tennae. On one occasion, I saw a rather surprising demonstration of the fact, that ring by ring each segment of the larva corresponds with and is formed within the corresponding segment of the larva of the preceding stage. A larva had ceased to feed, and retired to the middle of its mine as if to moult. Wishing to stain the neural ventral ganglia, as I had frequently done with other insects, I extracted the larva from the mine, and cut off its head, as previous observations had shown that the staining fluid would not act through the larval integument. I let the body remain a short time in the staining fluid, and then observed it in glycerine under the microscope. The staining process was a fail- ure ; and as no trace of the new larva could be detected contained within the old, I concluded that the larva was not preparing for its moult, but had ceased to feed for some other reason; when happening to press on the cover glass, to my astonishment the contained or new larva " shot out" from the old larval skin, leaving the perfect old skin, containing an almost perfect tracheal system, looking in fact almost as if the larva had suddenly duplicated itself. To return, however, to the life histories ofLithocolIetis, as illustrated b}' a species from each of the three groups. I have traced the life histories of many species of the fiat group, and they are essentially the same. Taking Lithocolletis guttifinitella, Annual Address of V. T. Chambers, Esq. 83 Clem., as our example: ifin the latter part of June,, or in July or August, we examine the leaves of the poison oak {Rhustoxico dendron) we shall find the upper surface of many of them marked with solid whitish blotches, of various sizes, the largest as much as an inch long, by ^ of an inch wide, and perhaps with two or three branches; the smallest barely perceptible specs. These are the mines of L. guttijinitella, and the largest may contain half a dozen larvte, whilst the smallest have only one, the large mines having become confluent with others. Look- ing closely, or with a lens, we ma}- detect a minute glistening paint on the leaf at the beginning of each mine; this is the egg shell. It is a structureless membrane, containing a few minute pellets of "frass" or ex- crementitious matter. The agg unhatched has never been seen on a leaf, but I have dissected it out of the moth. It is oval, flat, with yellowish contents, and is .304'2 millimeters long, and as the larva, like other larvne, lies no doubt in a curved position in the Qgg^ it is a little longer than the latter, probably about .3744: mm. long, which we shall presently see is just what its length ought to be if the same ratio of growth prevails in the first as in the succeeding four stages of its life; the youno-est larva that I have measured, however, was already several hours old, and measured nearly .4 mm. At this period of its life the mine is a small, whitish speck. Holding the leaf up in the light we see that the frass, as the excrement is technicall}^ termed, is deposited in the form of the letter Y, and the larva lies in the fork of the Y, curving its body around and eating in ever}^ direction, so that when the larva has attained its full size at the end of its first stage of growth, the mine is usually exactly circular. Tlien at this stage (which xay observations lead me to believe is sixt}' hours after the time the larva left the ^gg) it ceases to feed, and retiring to the center of the mine lies quietl}' across the forks of the Y to undergo its change into the next larval stage. The mine now is circular, with a diameter of 1.19 millimeter, with therefore an area of 1.112 mm., which, since the larva only eats the superficial layers of the parenchyma, in all of its stages as before said, represents actually the size of the pile of food consumed in its first stage. The length of the larva is now .8128 mm., or, .19 mm. less than fds the diameter of the mine, but it is difficult to give the diameter of the mine accurately to minute fractions of a mm., and the larva looks to &e just fds the diame- ter of the mine in length. These are not fancies, nor the result of ac- cidental coincidences in a few cases; thej^ are accurate measurements of numerous larvse and their mines. It will be found that the length of the larva always bears the same definite ratio to the diameter of the mine: that the size of the mine bears always the same definite ratio to 84 Cincinnati Sociefy of Natural History. the size of the mine in the previous stage, which is the same thing as saying that the quantity of food consumed by the larva in each stage always bears the s ame definite ratio to the quantit}' consumed in the preceding stage. In each stage it is three times as much as in all of the preceding stages combined; and that at the end of the 2d, 3d, 4th and 5th stages respective!}', the length of the larva is increased b}^ ex- actl}^ the length of the larva at the end of the first stage. I have said that about sixty hours after the larva leaves the mine, it ceases to feed, and places itself across the Y to undergo its moult. At that time it is j-ellowish white, without maculfe, and with mouth parts as in figs. 1 and 2, and no trace of the larva in its 2d stage, is discernible; but in three or four hours, the skin is seen to be somewhat loosened over the posterior segments, and the antennae and trophi are seen to be parti}- retracted out of the corresponding parts of the old skin. The body, when the larva ceases to feed, is composed largely of oil globules, which at first are packed densely along the course of the intestine, but after- wards spread and make their way through the tissues, forming two rows, extending through the entire length of the larva, even down into the trophi, and which send out on each side two rows into each segment. These oil globules are gradually absorbed into the tissues of the body; and by the time the organs are retracted as above stated, the oil globules have almost entirely disappeared. The separation of the contained larva from its old skin appears exactly as if the inner layer of the skin, over the whole extent of the body, had separated from the outer one. After the various organs are retracted as aboA^e stated, they are at first soft, white and colorless, but they rapidly harden, and the trophi assume a ferruginous hue, and the larva begins to struggle for release from the old skin, which ruptures across the under side of the suture behind the head and then down the sides; and twelve hours after it ceases to feed, the larva makes its exit from its old skin. It is then but little larger than the larva of the first stage, but it immediately, sometimes before it is entirely free from the old skin, begins to feed vo- raciously. The oil globules have now entirely disappeared. The larva is at first yellowish white, without macuhx), but in a few hours the hollow elliptical transverse maculae begin to appear on segments five to nine inclusive, and soon they are distinct on both the dorsal and ven- tral surfaces of the body, though they are less so on segments 4 and 9 than on the others, and these maculated segments assume a faint, dusky hue. After feeding and growing another sixty hours, the larva again ceases to feed, and retires to the central spot (no longer Y shaped) lo undergo its second moult. It is now just l.G25fi mm. long, or just Annual Address of V. T. Chambers, Esq. 85 twice as long- as it was at tlie close of the first stage. Its mine is still circular, and 2.38 mm. in diameter, or just twice the diameter that it had at the end of the first stage. , The area, therefore, is 4.4528 mm., or just four times what it was at the end of the first stage. But the mines of the first stage is included in this area, and, therefore, the amount of mined surface which repre- sents the food consumed in the second stage, is just three times as great as it was in the first sta2;e; while as just stated the larva has only doubled its length, but then it has grown in other directions also. The second moult proceeds precisely like the first, which I have alread}' described. Sixty hours have been spent in feeding, and then twelve are spent in moulting. Three da3's is the entire length of this, as of each of the first five and of the seventh stages. The larva of the third stage resembles at first that of the second closely, and is but little larger. The maculiB, however, are darker, and the maculated seg- ments are of a deeper smoky hue, and the macula on the fourth seg- ment is trapezoidal, instead of elliptical. Sixty hours more are occu- pied in feeding, and twelve in moulting, and the larva at the close of this stage measures 2.4384 mm., or three times the length of the larva at the end of its first stage. The mine at this time usually departs somewhat from its circular form, but occasionally circular mines of this age may be found, and these have diameters of 3.57 mm., or three times the diameter of the mine of the first stage, and have an area of 17.711 mm., or four times the area of the mine of the second stage which, however, is included in it, so that the area mined in the third stage, and which represents the amount of food consumed in it, is three times as great as that mined in the first and second stages combined. The process of moulting is precisely as in the two previous stages. In the fourth stage, the macule are still more distinct, and a new trapezoidal macula appears on the third segment, and the maculated segments are of a still deeper smokj' hue. But the form of the mine is now so irregular that its area can not be accuratel}' determined; still one can easily determine that if it is not exactly four times as large as it was at the end of the third stage, the difference must be very small indeed, and I am convinced that the same ratio still prevails. The length of the larva at the end of the first stage has again been added, and at the end of this, the fourth stage, the larva is four times as long- as it then was, that is, it is now 3.35 mm. and a fraction. Sixt}^ hours have again been spent in feeding, and twelve in moulting, and the pro- cess of moulting is precisel}^ what we have seen it to be in the three previous stages, and the larva enters its fifth stage. 86 Cincinnati Society of Natural History. In the fifth stage, the maculated segmeuts are of a deep, smoky hue, to the naked eye almost black, the macuhe also are of a darker color, and the posterioi* line of a new one appears on the 2d segment, , and a new ellipsoid one appears on the eleventh segment. Sixty hours are spent in feeding, and twelve in moulting again, and at the timeotthe moult the larva is 4.164 mm. long, or five times as long as it was at the end of the first stage. The mine is now so irregular in outline that its area can not be determined accurately, but the same or nearly the same ratio evidently still prevails. The process of moulting is the same as at the preceding moult, but the result is a creature of very different form. "Ring by ring, and organ b}' organ is still withdrawn from the corresponding parts of the old skin, but the new organs so withdrawn, are now very different from the old, as ma}- be seen b^^ comparing figs. 1 and 3. (In the latter the labium and maxillae are seen protruded to their full extent; they are capable of retraction so as to be no larger than the other organs, as shown in fig 4.) In the 5th stage, the mandibles are multidentate and formed for feeding. In the 6th they consist each of onl}^ a single small tooth, and are placed so wide apart that the}' can not be used for biting food. The maxilloe present a totall}' different appearance (fig. 3 c, arid fig 2 c), as do also the labium and its palpi fig, 3 a and y^ and fig. 2 a and h. Indeed no labial palpi have here- tofore been observed. The spinneret (figs. 2 and 3/) appears now to be fully developed; nevertheless, it still does not perform its functions. The mandibles and maxillse, as stated, have changed greatly in form, and there are now no organs of mastication, but none are needed, for the larva eats no more. It has finished feeding in its fifth stage, and its sixth and seventh stnges are stages of developmental growth. During the pre- ceding stages the oil globules have been nearly all consumed at each moult, but there has been a small residium left at each, and the quan- tity of the residium has increased at each moult. After the fifth moult the quantity is large, the larva in its sixth and seventh stages being largely composed of them. The form of the body undergoes but little change in tlie first five stages, only becoming a little thickened verti- cally. It is still a " flat*' larva. In the fifth moult the larva thickens still more vertically; and in the sixth stage, though still depressed, can not be called flat. The feet are still as they were in the preceding stages. The maculte and the smoky hue, however, have entirely dis- appeared, and the larva is white, with an orange spot in each side of the anterior margin of the first thoracic segment, produced by a collec- tion of yellow oil globules. As the larva does not eat, of course Annual Address of V. T. Chambers, Esq. 87 the mine is enlarged no more, neither does the larva increase in length; it is still of the length of the larva at the end of the fifth stage. The ratio of growth has ceased. The body is less rigid and more conti-ac- tile, and the head, hitherto in the axis of the bod}', is now somewhat deflexed. This stage lasts only half as long as each of the previous stages, about thirt3'-six hours, and at the sixth moult, as in the previous moults, each organ can be seen to be retracted out of the corresponding part of the larval skin. The larva, in its seventh stage, is at first scarcely distinguishable from the sixth stage larva; it is onl}'' a little less depressed, but it becomes gradually more cylindrical in the latter part of this stage. It does not feed, and there is no increase in length, nor is the size of the mine increased. This stage again lasts three daj'^s, and near the end of it, owing to the changes going on within it, by which it becomes a pupa, it becomes distinctly cylindrical, and is no longer a " flat" larva. The spinneret and silk glands are more full^^ developed, and capable of use, and they are brought into use. After passing into this stage the larva remains quiet for some hours, then it turns upon its back and spins a narrow web along the inner surface of the loosened upper cuticle of the leaf, whereby a narrow fold is made in the cuticle, so that a slight curve is given to that part of the leaf, and thus the mine is made more roomy. Then the larva turns again on to its ventral surface, and spins beneath it a circular floor of fine white silk, the diameter of which is a little greater than the length of the larva ; then turning again on to its back, it spins over it a circular roof which is united to the floor of the mine all around its edges, and its coccoonet is complete. It then turns again on to its ventral surface, and rests quietl}' to undergo its seventh moult; that by which it passes into the pupa state. It has now been in its seventh stage about two days and a half, and in twelve hours more its change is complete. But how is this change efl"ected? Just as were its previous changes, by the absorption of some organs, or the arrest of their growth, and by the rapid growth of others. If about six hours after the completion of the cocoonet, the larva be removed from the mine, it is found to be no longer a flat larva; it has become almost cylindrical, whilst the thoracic feet are much enlarged, and appear as mamillary' projections? and the arrangement of the oil globules is the same as we have seen it to be just previous to each of the preceding moults. A little later we shall see that great changes have taken place in the head, though up to this time none of the organs of the forthcoming pupa can be perceived. As in the preceding moults, the eye-spots, antennai and trophi arf gradu- ally retracted from their corresponding parts of the old skir , and at 88 Cincinnati Society of Natural History. first do not appear to be difFerent in form from those of the larva. Tn fact, it looks like only the larva in an eighth stage; bnt it is in fact the pupa. It differs onl}' in form from the preceding larval stage by being more cylindrical, slightly constricted behind the thorax, the mandibles are reduced greatly in size; the maxillae are mere small fleshy lobes, similar to the labial palpi, but a little larger; and the labrum and labi- um are also small and membraneous. The antennae at first scarcelj' diflTer from those of the preceding stage. There are no ventral feet, and the thoracic feet are merely fleshy, mamillar3' bulbs; and minute sacks, the rudiments of the wings, may be observed on each side of the thorax. Still the creature looks much more like a larva than it does like the pupa into which it will soon grow. It does not remain long in this condition. The head and its appendages, the antennae and trophi, are slowly retracted ; the eye spots are drawn together (those of each side) under the head, and form the eye of the future imago, and when the head is fully retracted thej^ will be found as far back as the middle of the first thoracic segment of the old skin. The antennae and parts of the trophi grow rapidly. At first they show no sign of articulations. The maxillae grow into two fieshy appendages stretched side by side in front of the head; and the labial palpi appear beside but beneath them, and smaller. The antennae grow more rapidly, turn upon themselves, and finally their vermiform convolutions fill each side of the head of the larval skin. The head at this stage is represented at fig. 4, and if we remove it from the larval skin, and extend the antennae and trophi in front, it will appear as in fig. 5. Whilst these changes have been pro- gressing, the cephalotheca, or head shield of the pupa, has also made its appearance, at first as a white, thickened spot on top of the head, growing then into a triangular form, and gradually extending its apex in front over the entire head. The articulations of the anteuure be- come gradually more distinct, and when these and the trophi have at- tained their full growth, the antennae are graduall}'' uncoiled, and to- gether with the trophi are laid beneath the body, as we find them in the pupa. Wliilst these changes have been progressing, the muscles and other organs of the thorax and abdomen grow rapidly, and the constric- tion between the thorax and abdomen becomes deeper, and the wings also have grown from the minute sacks which I have mentioned into their appropriate size and position in the pupa. The pupa is now fully formed, though it is soft and wiiite, and is still contained within the larval skin. It, however, hardens and darkens rapidly, but even after escaping from the larval skin is still pale and tender. The cephalotheca is produced as a curved acute point in front, Annual Address of V. T. Chambers, Esq. 89 on each side of which are a few minute retrorse teeth, with their anterior margins forming a cutting edge: and each abdominal segment is armed on its dorsal surface with a row of microscopic thorns, pointing backward. All these are useful to the pupa in making its exit partially' from the cocoonet and mine, preparatory- to disclosing the imago; and the an- terior half of the body having by means of this armature been pushed through the opening made in the cocoonet and cuticle of the leaf b}' the curved point of the cephalotheca, the skin of the pupa splits across the suture behind the cephalotheca, and along the sides of the wings, and the imago emerges. The pupa state in July and August lasts six days, or just twice as long as each of the preceding larval stages (except the sixth, which is, as before shown, onl}^ half as long as the others). Thus the duration of the larval life is nineteen and a half days, and that of the pupa six days. How long the imago lives is not known, nor so far as I have been able to learn has any one ever known the imago to feed, and it seems probable that not only does the larva in its first five stages la}' up a store of food sufficient for the two succeeding larval stages in which it eats nothing, and for the pupa, but also for the imago. I have given as fully as the time at my disposal will permit, the life historj- of Lithocolletis guttijinitella. But the cj^cle of changes is not always the same. I have alluded before to the observations of Mr, Edwards upon the larvai of some butterflies, showing that while some proceed regularly with their metamorphoses, others of the same brood, from some unknown cause, will even in early summer cease to feed and to grow, but will hibernate, and then pass through the remainder of their changes the next summer; and I have stated that a very similar fact occurs in the larvse of Lithocolletis. Early in August, some larvae, after having reached this seventh stage, proceed no further with their changes until the next spring, whilst others pass through all of them, and in all probability deposit the eggs from which come another brood in the same season. These dilatory larvae, do not spin their cocoonets like the others, the}- make no fold in the upper cuticle of the leaf, but simply spin the floor of their cocoonets, and attach it all around its edges to the upper cuticle, which they also cover with a sheet of silk. This form of cocoonet is as roomy as the other, because it is made to produce a more distinct mamillary bulge of the underside of the leaf; and in it the larva remains, until the following April or May; and its development is not hastened b}^ the warmth of the late summer or fall. The number of larvae that pursue this course, increases from the first of August on through the season until in the latter part of September no other form of cocoonets will be found. 90 Cincinnati Society of Natural History. It is unnecessary to give in detail all the particulars of the life history of i. ornateUa Cham. In most respects its development does not differ from that of L. giittifinitella, Clem., as above given; and it will suffice to point out the particulars in which it does so differ. The larva is not so much flattened, a transverse section of it being more ellipsoid. The maculae make their appearance on the second to the twelfth seg- ments inclusive, and are solid spots, not mere rings, and are found only on the ventral surface. In the fourth stage they are less distinct, and in the fifth ai'c scarcely discernible. In the fourth stage the larva is tinged with a peculiar greenish hue, and in the remaining stages it is of a bright green color. At the end of the first stage, thelarva is .584 mm., at the end of the second 1.168, of the third 1.752, and at the end of the fourth 2.336; that is, in each of these stages, the larva, like L. gutti- finitella, adds the length of the larva at the the end of the first stage. But at the end of the fifth stage, unlike giittijinitella, it adds twice that length, and is 4.10 mm. long. The same ratio as to the amount of food consumed in the several stages, as in guttijinitella, also prevails, so long as it can be ascer- tained by the size of the mine ; that is, in each stage the larva con- sumes three times the amount of food that it did in all of the previous stages combined. In the first stage, there is a single ocellus placed as it is in guttijinitella, and a second one is added at the second stage, and these continue to grow through the next four stages, but each ocellus is more distinctly composed of separate minute pigment spots. The transformations take place just as in guttiflnitella. Thus far there is no sufficient reason for separating L. ornatella from the flat larvae, as a group by itself. But at the fifth moult it departs widely from guttlfinitella\ and although it eats nothing after the fifth stage, yet the mandibles instead of being aborted, are larger than they were in the fifth stage, though otherwise the same change in the form of the trophi occurs as we have seen occur in gxMifinitella ; that is, in the sixth and seventh stages they are of the form shown at figure 3, instead of that shown at figures 1 and 2. A still greater change in the feet takes place at the fifth moult, for in the sixth and seventh stages both the thoracic and ventral feet are as well developed as in any ordinary caterpillar, the ventral feet having the circle of booklets, and the tho- racic ones being each armed with a well developed claw. The form of the larvae also undergoes a great change; it is no longer flat, and the dorsal surface is convex in the sixth stage, and b}' the end of tlie seventh the larva has become c>'lindrieal. There may be a reason in the habits of the larva (or vice versa) for tliis difterent development. Annual Address of V. T. Chambers, Esq. 91 As before stated, the larvaj of the flat group all pupate in the mine. L. ornatella, with its large mandibles, cuts a lunate slit in the loosened cuticle of the leaf, and crawls awa}^ (which the flat larva is unable to do) to pupate elsewhere. It differs also in its mode of hibernation from the flat larvae, all of which hibernate as larvae, while L. ornatella hibernates both as larva and pupa; thus, as in its form approaching the c^dindrical group, all of which (in this country at least) hibernate as pupa. In its form also, and structure in its last two stages, it is closely allied to the cjiindrical group, and it connects both groups by its mining habits, for it mines indifi'erently either surface of leaves, while all larvae of the flat group mine only the upper surface, and those of the CA^lindrical group, with rare exceptions, mine the lower surface. As in the flat larvae the sixth stage lasts only a day and a half, each of the other stages lasting three days, and the pupa state six in July and August. On each side of the 6th, 7th and 8th segments projects a curi- ous cylindrical tube, unlike anything that I have seen in other larvae. The larval history of the cylindrical group is more diflScult to trace than that of either of the other groups, because the mine being deeper the larva is better concealed from view. In this group I have traced only thehistorj^ of L. rohiniella, Clem., and owing to the irregular form of the mine it is impossible to say anything as to the relative quantitj' of food consumed in the different stages further than that very nearly if not the same ratio prevails as in the preceding groups. In their first three stages these larvae are also flattened, but they are narrower, and more elongate than those of the other two groups. Usually the maculae are absent or indistinct, but in one species L. tritasniaella, Cham., they are darker than in the flat larvae, and the larva itself is of a dusk}' hue, while the larvic of the group generally are white or yellow- ish white. In L. robiniella the larva is white, usuall}' immaculate, but sometimes with the maculae almost black. Each larval stage (except perhaps the fourth) lasts three dajs, and the same increase of size (that is the length of the larva at the end of the first stage is made in eacli stage.) For the first four stages (or the first three and part of the fourth), the mine resembles that of a larva of the flat group; but the same change which takes place in the trophi of the other two groups at the fifth moult, and substantially the same change in form which takes place in L. ornatella, at the fifth moult, takes place in the cylindri- cal group at the third moult; that is, the larva then first assumes a cylindrical (or rather at first a moniliform) shape: the legs and feet are well developed, and the trophi assume the form indicated at figure 3. The same ratio of growth in the several stages is also observed as in 92 Cincinnati Society of Natural History. the other two groups, with a break at the fourth stage like that which occurs at the sixth stage in the other two groups. Then at the end of the first stage the larva of L. robiniella, is .764 mm. long; at the end of the second, 1.528 mm. ; at the third, 2.292 mm. But at the end of the fourth stage, while the changes above indicated have taken place, the larva is still of the same length that it was at the end of the third stage. At the end of the fifth stage, however, it has again added the length of the larva of the first stage (.764 mm.), and is now 3.056 mm. long; at the end of the sixth, 3.82; at the end of the seventh, 4.58 mm. Thus unlike the larvae of the other two groups this larva continues to grow through its sixth and seventh stages, but does not grow in its fourth. The fourth stage here is the representative of the sixth in the other groups. I suggested, as to the greater development of the trophi and feet of L. ornatella, as compared with the flat larvae, that this develop- ment was probably connected with the habit of the species of cutting its way out of its mine, and crawling awa}^ to pupate. But doubt is thrown on this by the larvae of the cylindrical group, for their feet and trophi appear in their last stage to be about as well developed as those of L. ornatella, yet these larvae never leave their mines, but like the flat larvae pupate in their mines, and seem to be unable to crawl when re- moved from them. There appears to be no sufficient reason why these organs are better developed in the cylindrical larvae than they are in the flat group; but in both the cylindrical larvae, and in L. ornatella, this development of the trophi and feet is accompanied by the change in the form of the larva, and in the position of the head. The change in the form of the trophi in the flat group is of the same character, but not so great; nor is the change in the form of the larva, nor in the position of the head so great. But I have not time to enter further into these matters, and my chief object has been to show the ratios of size and food of the several larval stages; the relation of the quantity of food, to the increase of size in the several stages; and the relation of both to the periodicity of ecdysis; and to illustrate the manner in which the apparently sudden metamorphoses have been produced gradually, by the rapid growth of some organs, and the arrested growth or absorption of others. If 1 ^l ' N^,. Fig. 2. Fiff 3. Fig. 4. Fig. 3. Fig. 4. Fig. 5. Fig. 1. Head of iiiAoco^Zeits larva of the flat and ornaUlla gxon^s,\\\ the first five stages, and of the cj'lindrical group in the first three stages. Mouth parts of fig, 1, much magnified. Head of larva of the fiat group after 5th moult, the labium and maxillaj fully extended. They can be retracted until they are no larger than the other organs. Same as fig. 3 in the latter part of 7th stage, the labium and maxillae not extended, and showing the larval head emptied by the retrac- tion of that of the pupa with C, maxillae; H antennae, and K cephalotheca of pupa. Fig. 5. Pupa of fig. 4 removed from larval skin, and with antennae H, and maxillae C, extended ; K, cephalotheca. The lettering is the same in all the figures, viz: A, lower; B, upper tube ot labium; C, maxillae, meeting across the upper surface of the labium, and forming the floor of the mouth; D, maxillarj' palpi (?) or supplemental teeth (?); E, mandibles; F, spinneret; G, labial palpi; H, antennae; J, eyes. New or Little Known North American Limnoiidce. 93 NOTES ON 8031 E NEW OR LITTLE KNOWN NORTH AMERICAN LIMN^IDJE. B}^ A. G. Wetherby, A.M., Prof, of Geology and Zoology, University of Cincinnati. [Read before the Cincinnati Society of Natural History.] In his report on the mollusca of Long's expedition (vol. ii., 263, pi. XV., fig. 10, 1824), Say describes this species in the following words: " Shell large, dilated suboval ; spire short, rapidly diminishing, acnte ; whorls about five, rounded, obtusely wrinkled across, body whorl large, the wrinkles very obvious, suture deeply impressed ; aper- ture subovate, much longer than the spire, within chestnut-brown ; columella white. Length more than one and six-tenths of an inch; greatest diameter one inch. This remarkably large and fine species was found in Bois Blanc Lake, Northwest Territory, by Dr. Bigsby, to whom I am indebted for speci- mens. The color is brownish, sometimes lineated across the body- whorl with dull greenish and pale ochraceous; and the chestnut-brown color of the interior of the shell, combined with its large dimensions, distinguish this species from all others yet discovered in this country." Prof. Haldeman, in his monograph of the Limnoiidai, p. 6 (1841), describes, in the following words, his subgenus Bulimnea : "Shell thick in texture, inflated, lip not expanded." To the genus, as thus characterized, he refers the shell in question, which is its type. In the discussion of the species, p. 13, he says, " animal blackish — Bin- ne}';'' and in reference to habitat, "found in the Northwest Territory — Say (north latitude 48°), and collected b}^ Dr. Binne}" 'in a swamp in front of the town of Burlington, Vermont, ver^^ near the shore of Lake Champlain.' The Northwest Territorj'^ must be the original station of this species; whence it has reached a distance of 1,500 miles, with the descending waters. The more rapid current of the Mississippi, and the diff'erence in climate, have doubtless prevented it from establishing itself in the Western States." In Land and Fresh Water Shells, part ii., 1865, Mr. W. G. Binney refers this shell to Prof. Haldeman's subgenus Bulimnea, and says of the geographical distribution, "this is a northern species ranging from Lake Champlain to Michigan," and among the localities there given for specimens in the Smithsonian Institution, we haA'e "Burlington, Vt.," "Lake Champlain, W. Stimpson," and "Lake Superior, Dr. J. S. Newberry." As Burlington is in north latitude 444°, and Bois Blanc 84 Cincinnati Society of Natural History. in 48°, we reach between these points the limits of distribution so far as now authenticated. Through the industry and success of our Secretary, Dr. J. M. Craw- ford, who discovered this mollusk during the past summer, on the western side of Green Bay, in upper Michigan, and who kindly obtained and brought home living specimens, we are enabled, not onh"^ to clear up slight errors in reference to the shell, but to describe the animal accurately, as well as to give a full discussion of its an atom}'. The adult shells from the Green Bay locality much exceed in size those described by Say, and figured by Haldeman and Binney, as the average length is two inches, and specimens frequently reach that of two and three-eighth inches, or nearly 60 mill., while Say's specimens were less than 45 mill., in length. Many of the specimens collected by Dr. Craw- ford, also attain a diameter of more than one inch, so that, considered in reference to cubic capacity, they are much larger than the specimens described by Say, or figured hy either Haldeman or Binney. The color of the shells is a uniform yellowish brown, with none of the highly ornamental outside tints given in Prof. Haldeman's pi. 3., figs. 1 and 3. The inside of the shell is nacreous, and dark purple, or purplish brown when the shell is somewhat thin. The columellar callus is carried around, and spread widely over the inner and upper center of the body- whorl, thickening it, and rendering this part of the shell white interiorly. Tho lines of growth give the whorls a slightly undulated appearance; and these have a tendency, in a few specimens, to be broken up trans- versely, on a small area of the front of the shell, directl}' over the aper- ture, giving that portion of the body-whorl a somewhat wrinkled ap- pearance. A few very minute transverse striae may be seen with a good magnifier. The body-whorl makes up the greater part of the shell. Above this it tapers rapidly to the acute apex. Animal. The head, rostrum, tentacles and upper and lateral surfaces of the animal are of a dirty yellow, dotted with lighter, j^ellowish white pig- ment spots or granules of irregular form. The rostrum is deeply cleft in front, the two lobes being rounded anteriorly and laternll}'. The oral aperture is situated in the rostral cleft; the tentacles are triangu- lar, attenuated at their extremities, and have a ridge-like process con- tinued from their inner angle upon which the eyes are situated, close to the base of the tentacles; these are long enough to project laterally and anteriorly beyond the lobes of the rostrum. The foot is wide and short, obtusely rounded in front, slightly attenuated and more pointed Neil) or Little Knotcn j^orth American Limnctiidm. 95 behind. It is widest immediately beneatli the tentacles. The color, above, is darker than that of the body; the sole is dark bluish or lead- color. The animal is sluggish in its habits, and excessiveh' timid, the slightest disturbance of the water causing it to instantly draw itself into the shell. Though it feeds upon algae in confinement, my speci- mens also devour the animals of land snails, and of fresh water mus- sels with great greediness. Anatomy. — The Digestive System. The buccal mass, fig. 1, is oblong-oval, of a bluish or lead-color, :ind lies before the e^'es and between the tentacles, in a cavity of Fig. 1 B, buccal mass ; 0, oesophagus ; S, salivary glands ; S G, stomato gastric ganglion ; D, duct of salivary gland; G, gizzard; P, pyloras ; I, intestine ; L, liver. the cephalic part of the rostrum. It is composed of dense muscular tissue, containing the protractors and retractors of the radula, and also a set of muscles so arranged as to vibrate the lateral jaws. It opens anteriorly b}- the oval aperture which is armed with an upper and two lateral jaws, and posteriorly into the oesophagus, which is long, nearh' straight, and passes into the lower anterior side of the distinctly bilobed stomach, at the central line. The salivary glands are white, ramose, and are situated upon the oesophagus, just posteriorly to the nerve collar, and open into the dorsal side of the buccal mass by two long ducts which pass through the nerve collar: these ducts are bifid near the glands, but the branches soon unite. The stomach or crop is composed of two dense subglobular masses, made up of muscle with distinctl}' striated fibres, the walls being of immense thickness and firm- ness; the inside is lined with a wrinkled and dense mucous tissue, and contained in the specimens dissected, a large number of small grains of quartz sand. The pyloric poi-tion of the stomach opens on the upper posterior cen- tral line, between the two muscular lobes, and gradually tapers to the intestine proper, w^hich is first folded around the left side, and the front of the stomach over the oesophagus, then back spirally to the posterior portion of the liver, where it is flexed on itself, and passes 96 Cincinnati Society of Natural History. forward to open on the right side, and a little below the respiratory orifice. The liver is large, lobed, placed posteriorly, and opens by ducts both into the pyloric portion of the stomach and into the intes- tine. There is a well developed pancreas. The Nervous System (fig. 2). The nervous system consists of the usual collar, forming dense, yel- low, irregular, and much-branched ganglia, nearly surrounding the Fig 2. A, supra-cesophageal ganglion ; I, infra-oesophageal ganglion; 0 0', optic branches; SS', gtomato-gastric branches and ganglia ; P, pedal branches; D, dorsal branches to pulmonary cavity, etc. OPsophagus, just posteriorly to the buccal mass. The supra-oesophageal ganglion is much larger than the infra, and sends filaments to each side of the buccal mass, to the base of the tentacles, to the penis and vagina, and to the floor of the pulmouaiy cavity. The stomato-gastric ganglion, which lies on each side, at the junction of the oesophagus, the duct of the salivary gland, and the buccal mass, receives a filament^ and distributes branches to the buccal mass, to the ducts of the salivary gland, and to the oesophagus, the distribution being much as I have found it in Arioliinax. The main branches of the infra are distributed to the foot. The Reproductive System (fig. 3). This consists of a very complex hermaphrodite apparatus, opening on the right side by two apertures. The ovary is a flocculent, light yellow mass, folded between the liver and the stomach ; the testicle lies close to it, and anteriorly in the natural position of the organs. The oviduct is comparatively wide and short, and terminates in a distinct vagina, opening exteriorly. The prostate is well defined, and Neiv or Little Knoxon North American Limnceidos. 97 lies upon the oviduct, extending to the vagina. The genital bladder (?) or receptacidum seminis, is large, and communicates with the vagina by a long duct. The vaginal aperture is small, opening on the T, testicle; 0, ovary ; 0 V, oviduct; P', prostate ; G- B, receptaculum seminis ; D, its duct; V, vagina ; V D, vas deferens ; P, penis; P S, penis sac; N, nerve. right side, behind the male orifice. I have been unable to work out the circulatory system, owing to the fact that I have had but a single animal from which to determine the points given, and that was an alco- holic specimen and much hardened. The same is true of the relations and position of the renal organs. The most striking thing in the anatomy of this species is its close approach, in man}' of its characters, to the land snails, especially to Limax. What this may indicate as to the past history of these crea- tures is entirely speculative; but the relation is much nearer than that of the genus P/a;ior6is to which reference has been made by several authors. In all their habits these creatures exhibit a close relation to Physa. Like them the}' can float upon the surface, shell downward; in this position, by a peculiar motion of the foot, they swim slowly and awk- wardly. They spin threads of mucus upon which they ascend and de- scend. The upper end of the thread floats, sustained b}' a bubble of mucus. In all these respects they are like Physa and other species of Li77in(Ba. Note on the Plaxorbis glabratus, Say. In the Journal Acad. Nat. Sc, (vol. i., p. 280, June, 1818), Mr. Say published his description of P. glabratus as follows: "Shell sinistral; whorls about five, glabrous or obsoletely rugose, polished, destitute of any appearance of carina; spire perfectly regu- lar, a little concave; umbilicus large, regularly and deeply concave; exhibiting all the volutions to the summit: aperture declining, re- markably oblique with respect to the transverse diameter. Breadth nearly nine tenths of an inch." 98 (Jincinno.ti Society of Natural History. "Inhabits South Carolina. Cabinet of the Academy. Presented to the Academy by Mr. L'Herminier, of Charleston, an intelligent and zealous naturalist. He assured me that this species inhabits near Charleston. It somewhat resembles large specimens of the P. trivolvis, of the American edition of Nicholson's Encyc. but differs in the total absence of carina, and in having a more smooth and polished surface, as well as a declining and more oblique aperture, and a more profound and much more regularly concave umbilicus." Halderaan, in his Monograph of Planorbis, pp. 11 and 12, quotes Say's description and sa3-s: "My shells do not agree perfectly with Say's description copied above; 3'et the}^ most probably constitute the species he had in view. The}' differ from P. trivolvis by having a much more oblique peritreme, the whorls more nearly cylindrical, the diameter increasing less rapidly, and without any tendency^ to carination upon the left side." Mr. Binney, in Land and Fresh Water Shells, part ii., p. 106, quotes Say's description and adds: "My figure of P. glabratus is drawn from a specimen corresponding with that figured by Kalde- man, and generally acknowledged to be this species." It would seem, from the language used both by Haldeman and Binney, that they had never seen Mr. Say's type of this species. As they would undoubtedly have availed themselves of every means accessible, and as the collection of the Academy was at all times open to them, the presumption is that Mr. Say's type is lost. It is needless for me to say to those who liave given close attention to this species, that the shells known as P. glabratus in collections, do not agree with Mr. Sa_y's description in many particulars. The}' do not have five whorls; they are carinated; they are not glabrous or polished; they ai'e transversely roughened by lines of growth; the um- bilicus does not exhibit all the volutions. It is to be remembered that Mr. Say's description is founded upon the idea that the shell is sinistral, an opinion which I hold notwithstanding it is contrary to the general belief of our leading conchologists. I have in my collections specimens labeled P. glabratus, by one of the most competent of North American conchologists, that show but a fraction over three whorls; that exhibit, in no case, all the umbilical volutions; that are carinated; that are not polished but roughened by lines of growth. These can not be Mr. Say's shell, nor have I yet been able to obtain a specimen from my exchanges that would meet the requirements of the case. In 1875 a large collection of shells, from the iMiami country of Florida, came into my hands, among which was the true Planorbis New or Little Known North American Limnceidoe. 99 glahratus. Not being uncertain, at that time, as to the identity of the shells in 1113' cabinet under the name of P. gfabratus, I supposed the shells now referred to that species to be new; they have been so called by others, but I am now satisfied that they are the true P. glabra tus of Say, and that they will assist in removing any of the uncertainties cling- ing about that species. As will be seen by the specimens exhibited, they have five whorls, they are not carinate, the whorls Increase in size very graduall}^ the umbilicus exhibits all the volutions, the shells are polished, and they meet, in every way, the requirements of Mr. Say's description. It is highly probable, therefore, that the species has not, hitherto, been correctly identified. The species has the southern dis- tribution of many of Mr. Say's shells, and together with the P. lentus has probably not been found in northern waters. Planorbis (Helisoma) durti, nov. sp. (fig. 4). Shell thick, shining, straw color, of medium size, slightly waved by indistinct transverse ridges, which upon close examination are seen to Fig. 4. be made up of from five to seven lines of Increment. Whorls about four, rapidly enlarging, the last carinate above to the labrum, sub- carinate or obtusely rounded below. Spire very regular, flat or very slightl}^ concave. Its outer whorl is sometimes slightly raised on the side before the aperture. Umbilicus deep and narrow, not exhibiting all the volutions. Peristome acute, sharply angular above, forming the upper carina of the body whorl, less acutely angular below, and de- flected upward so as to meet the body whorl at one-third the distance from its base, thus approximating its upper extremity. The lower margin of the aperture is pi'oduced beyond the upper, thus rendering the aperture very oblique in profile. Remarks. This shell was given me several years ago, by Mr. Charles Dury, who brought it from the Everglades of Florida. It was also among the shells received from the Miami country. It is 100 Cincinnati Society of Natural History. one of the most distinctl}^ defined species of Planorhis yet found in this country, and certainly one of the most beautiful. The form of the aperture and the characters of the shell in P. glahratus and P. Duryi, warrant the statement that the}"^ do not belong to an}' group of the Planorbinae yet established, though we leave them, for the present, in Helisoma. OBSERVATIONS ON BIRDS. By Charles Dury and L. R. Freeman. In the following paper are given a number of heretofore unpublished dates of occurrence of birds in the vicinity of Cincinnati, with notes on some of the species : the captures in this locality of Tringa bairdii^ Sterna hirundo and Helminthophaga clirysoptera are for the first time recorded. Most of these observations were made in the neigh- borhood of Avondale, and at Locust Corner, near the Ohio River, about eleven miles above the cSXy. The aquatic birds were taken, with few exceptions, at the mouth of the Little Miami River, where the}' frequent the bars exposed at low water. November 22, 1879. Tdrdus mustelinus, Gm. Wood Thrush. — October 7, 1877. Turdus fuscesoens, Steph. Wilson's Thrush. — September 1. 1879, several specimens, Turdus alici^, Bd. Gray-cheeked Thrush. — September 16, 1879. Turdus swainsoni. Cab. Swainsons Thrush. — May 18, 1879; September 2 and 21, 1879. Turdus pallasi, Cab. Hermit Thrush. — October 20, 1878. Regulus calendula, Licht. Ruby-crowned Kinglet. — May 0, 1879. Polioptila c^rulea, Scl. Blue-gray Gnatcatcher. — September J, 1879. LopHOPHANES BicoLOR, Bp. Tuftcd Titmouse. — Noticed on Ma}' 25, 1878, that a tufted titmouse had selected as its breeding-place the dis- carded nest of some large bird, in the top of a tall, slim sapling. The little eccentric had deposited six eggs (nearly' hatched when found) on a layer of dry grass, which nicely lined quite a large hole which she had excavated in the side of the rough structure. SiTTA CANADENSIS, Liuu. Red-bellied Nuthatch. — September 15, 1878 ; April 27, 1879. Certhia pamiliaris AMERICANA, Bp. Browi) Creeper. — September 23, 1878 ; April 12, 1879. Observations on Birds. 101 Thryothorus bewicki, Bp. Bewick's Wren. — March 27, 1879, two specimens. Troglodytes ^don, V. House Wren. — April 27, 1879; May 11. CiSTOTHORUS PALusTRis, Bd. Long-Mlled Marsh Wren. — September 21, 1879, seven specimens. Mniotilta varia, V. Black-and-white Creeper. — April 27, 1879; October 12, 1878. Helmitherus vermivorus, Bp. Worm-eating Warbler. — April 28; September 8. 1879. Found rather common during July and the first of August, 1879. Helminthophaga chrysoptera, Cab. Golden- winged Warbler. — July 30 and August 1, 1879, two females. Helminthophaga pinus, Bd, Blue-winged Yellow Warbler. — April 23. Helminthophaga peregrina, Cab. Tennessee Warbler. — October 13, 1878. Rare in spring, but very common — our commonest warbler —in fall. Arrives early in September and remains into the first of Oc- tober. During the spring migrations, the warblers stay mostly in tall trees; but shortly after their arrival in fall, they all, including such tree-top-frequenting species as Helminthophaga peregrina, Parula americana, etc., aflE'ect the low bushes and weeds. Of about thirty Tennessee Warblers from this locality, the average length of wing was 2.50, of tail 1.83. The measurements given in standard ornithological works are, — wing 2.75, and tail about 1.85. Parula americana, Bp. Blue Yelloio-backed Warbler. — July 18, July 31 and August 27, 1879; September 20, 1878. Rather rare in spring; not uncommon in fall. Perissoglossa tigrina, Bd. Cape May Warbler. — May 5, 1879; September 7, 1877; September 22, 1878. Dendrceca estiva, Bd. Yellow Warbler. — September 15, 1879. Dendrceoa maculosa. Bd. Black-and-yellow Warbler. — August 28, 1879. Dendrceca c^urlea. Bd. Blue Warbler. — Common during the last of April, the bulk disappearing in the first week of May. Common from July 18 into the first of August, 1879. Dendroeca blackburni^, Bd. Blackburnian Warbler. — August 30, 1877; October 18, 1879. Common during the first week of May, 1879. Dendrceca pennsylvanica, Bd. Chestnut-sided Warbler. — April 25, 1877; August 26, 1879. Dendrceca striata. Bd. Black-poll Warbler. — September 1, 1879. 102 Cincinnati Society of Natural History. Dendrceca castanea, Bd. Bay-breasted Warbler. — September 4, 1879; October 20, 1878. Remains common during tlae first of October. Dendrceca c^-rulescens, Bd. Black-throated Blue Warbler. — April 26 and August 30, 1879; September 21, 1878. Dexdrosca virens. Bd. Black-throated Green Warbler. — April 22, 1878; July 23, 1879. Somewhat common about July 30, 1879. Dendrceca palmardm, Bd. Yellow Red poll Warbler. — December 24, 1878. Dendrceca discolor. Bd. Prairie Warbler. — May 5, 1879, male. Sidrus auricapillus, Bp. Golden-croivned Thrush. — October 5, 1878. A specimen obtained on September 16, 1879, was in such ex- ceptionally hjofh plumage that its l^ack was ornamented with several blackish, well-defined, longitudinal streaks. The entire upper parts were of a much darker, richer olive green than is usual, and the specific markings uncommoulj^ pronounced. The infestation of a large parasite found in the bird's abdomen may have stimulated it to the production of its peculiar characteristics. Measurements are as follow: length 5.88; extent 9.25; wing 2.79; tail 2.13; bill 0.41; tarsus 0.82, (l.r.f.) Oporornis formosus, Bd. Kentucky Warbler. — April 26, 1879. Common during the last of April and the first weeks of May. Num- bers of these warblers remain well into the summer; but they become quite scarce by the latter part of Jul3\ Frequents both high and low woodland. Geothlypis trichas, Cab. Maryland Yellow-throat. — April 25 and October 5, 1879. Common by the last of April. Tuyiodioctes mitratus, Aud. Hooded Warbler. — August 30, 1879, two females. Myiodioctes canadensis, Bp. Coiadian Fly-catchiny Warbler. — Rare in spring, but not so during the last of August and first of Sep- tember, 1879. Setophaga ruticilla, Sw. American Redstart. — April 26, 1879. Vireosylvia philadelphicus, Cass. Philadelphia Vireo. — Sep- tember 18, 1877; September 17, 1878. Lanivireo solitarius, Bd, Solitary Vireo. — October 19, 1879, several specimens; October 14, 1877. Not rare in 1879. Lanivireo flavifrons, Bd. Yellow-throated Vireo. — Common during the last of July, 1879. Vireo noveboracensis, Bp. White-eyed Vireo. — Nest with three eggs, July 25, 1879. Pyranga rubra, V. Scarlet Tanager. — April 19, 1878. Com- mon by the last of April. Ohsei'vations on Birds. 103 Pyuanga estiva, V, Summer Redhird. — April 24, 1878. Chkysomitris pinus, Bp. Pine Linnet. — Several observed during winter of 1878-79; May, 1879. LoxiA CURVIROSTRA AMERICANA, Bd. Red CrossbUl. — Westwood, Januar}, 1879. PocECETES GRAMiNEUS, Bd. Grciss Fincli. — March 25, 1878; Oc- tober 26, 1878. CoTDRNiccLUS PASSERiNUS, Bp. Tellow-ioingcd Sparrow. — April' 27, 1879; November 17, 1878. A rather common summer-resident. The sleek, little, yellow-winged sparrow is a cunning trickster. One was singing on a fence the other day, imitating the stridor of a grass- hopper. Being interrupted in rather a rude manner, he started hur- riedly down the side of the fence farthest from me; but after flying ten or fifteen yards he suddenly doubled, keeping near the ground, and going so rapidly that the closest attention was necessary to follow him. As soon as he lit, I started him off again, when he repeated the same dextrous maneuver, but with the addition of another double or two. He permitted three or four experiments of this kind before he realized that he was favoring me with too generous a free-exhibition, and left. The performance reminds one of the similar and usual stratagem of a hunted rabbit. The voice of the little fellow is quite ventriloquous — seeming to come from a^ioint much nearer than it really does. They lie close until nearly stepi)ed on, and then flit out of the weeds and into them again in a most vacillating manner, as though trying to dodge an expected gunshot; and when l\\Qy light, they run so far and so fast that it is difficult to get them up again. (l.b.f.) ZoNOTRiCHiA LEUCOPHRYS, Sw. White-crowned Sparrow. — May 11, 1878. Numbers seen and taken on December 28, 1878. ZoNOTRiCHiA ALBicoLLis, Bp. White- throated Sparroiv. — May 11, 1878. Remains very common into the first of May. JuNCo HYEMALis, Scl. BUick Siiow-bird. — October 13, 1878. Melospiza palustris, Bd. Swamp Sparrow. — October 26, 1878. Ctaxospiza cyanea, Bd. Indigo Bird. — April 22, 1878. PipiLo erythropthalmus, V. To-whee Finch. — A nest taken in Ma}', 1875, contained 3 eggs. This nest was pointed out to me by some woodchoppers working in the vicinity. In two weeks my attention was again called to the same pair of birds, they having constructed another nest this time in the top of a mulberry tree, 20 feet from the ground, (c.d. ) Icterus spurids, Bp. Orchard Oriole. — April 27, 1879. Tyrannus carolixexsis, Bd. Kingbird. — April 27, 1879. Empidonax minimus, Bd. Least Flycatcher. — August 27, 1879. 104 Cincinnati Society of Natural History. CoccYGUs ERYTHROPTHALMDS, Bp. Black-hUled Cuckoo. — Nest and eggs taken. Nest was placed on top of some blackberiy bushes. Nyctale ACA.DICA, Bp. Sawwhct Owl. — November 17, 1878 ; May. Squatarola helvetica, Brehm. Black-bellied Plover. — September 21, 1879, male. ^GiALiTis SEMIPALMATUS, Cab. Semipalmatcd Plover. — September 15, 1878, several specimens. Tringa bairdii, Coues, Baird's Sandpiper. — October 27, 1878. Calidris arenaria. 111. Sanderling. — September 15, 1878. Nyctiardea grisea n^via, Allen. American JSTiyht Heron. — Oc- tober 2, 1879. Ardetta exilis. Gray. Least Bittern. — September 2, 1879. PoRZANA CAROLINA, Cab. Sora Rail. — November 2, 1878. Mergus serrator, Linn. Bed-breasted Merganser. — March 24 and April, 1879. Sterna hirundo, Linn. Wilson's Tern. — September 9, 1878. Sterna porsteri, Nutt. Forstefs Tern. — May 4, 1879, six speci- mens. Hydrochelidon LARiFORMis, Coucs. Black Tern. — August 17, 1879; September 15, 1878, nine specimens. DESCRIPTION OF TWELVE NEW FOSSIL SPECIES, AND BE 31 ARKS UPON OTHERS, By S. A. Miller, Esq. Holocystites tumidus, n. sp. Plate IX., fig. 1, posterior view of the lower part of the body, fig. la, anterior view of the lower part of the body. This species is founded upon a single specimen, showing the lower part of the body. The point for the columnar attachment appears rudimentary or like a nipple, and not as if the column had been broken off. The pores, which are so numerous in the plates of this spe- cies, extend to this protuberance, and perforate it in numerous places, which tends to show its rudimentary character, as we would not ex- pect to find the perforations in a column. The inference is that it may have had a column in its young state, for attachment to some other object, and in maturity was free, preserving only the rudimentary organ. The body expands very rapidly upon the dorsal or posterior side, and but little upon the ventral or anterior side. D escription of Twelve New Fossil S2)ecies. 105 The first range of plates extends a little less than half way around the base of the rudimentary column on the anterior side. This range contains about a half dozen small irregular plates. The second range is on the anterior side, and extends about two thirds of the distance around the base of the rudimentary column. It contains twelve irregularly pentagonal plates of somewhat uniform size. The third range encircles the base of the bod^', and consists of eighteen plates. These are ver}^ unequal in size, but all of them are hexagonal except three upon the posterior side, which are pentagonal. Onl}' five plates, in this range, abut upon the base of the rudimentary column. The fourth range contains nineteen plates. These are unequal in size and irregular in shape. They are pentagonal, hexagonal and heptagonal. The fifth range consists of twenty-five plates, var^'ing in form from pentagonal to octagonal. The sixth range consists of about the same number of plates. The average size, however, being slightly increased. Onl}^ a part of the seventh and eighth ranges are preserved. All the plates are very poriferous. This species was collected by Fred. Braun, Esq., in the lower part of the Niagara Group, in Ripley count}^ Indiana, though the speci- men illustrated is in my collection. HOLOCYSTITES BACULUS, U. Sp. Plate X., fig. 5, view of the left or ambulacral side, fig. 5a, view of the summit. Body long, slender, subcylindrical and very gradually tapering in the lower third to the column. The summit is prolonged, in the direction of the ambulacral orifice, which is situated on the left side. The prolongation is much more marked than in H. x)^'>'longus. This orifice is subquadrangular and surrounded by five arms. The small plates surrounding the orifice are not clearly determinable in our speci- men. The next range which assists in the support of the arms, con- sists of eight plates. Five of these are hexagonal; two of them ex- tend to the mouth, on each side of the anal plate, and may therefore be called heptagonal, as this adds a mouth-side to them; and the eighth or anal pi ale, which is a long pentagonal plate, between the two latter, and extending from the mouth to the smaller plates sur- rounding the ambulacral orifice. It possesses a small anal apei'ture 106 (Jincinnati Society of Natural History. situated in a line drawn across the exterior part of the adjoining arm bases. The third range of plates, descending from the ambiilacral orifice, consists of eight plates and embraces the mouth. Six of these are heptagonal, the seventh side being produced by the intercalation of small plates, between alternate plates, on the ambulacral side of this range and the next full range of plates below. The plate upon the left of the mouth, including the mouth-side, is pentagonal, and the plate upon the right of the mouth, including the mouth-side, is hexag- onal. I have not included in this range the plate upon the lower side of the mouth. The mouth is thus placed close to the anterior side, and in the third range of plates in descending order. Part of the plates surrounding the mouth are removed in our specimen, but the scar shows the elliptical outline of the mouth. The fourth range may be called an imperfect range, because it is separated on the ambulacral side, and includes only the alternate in- tercalated plates. The rapid expansion, however, of the bod}^ upon the right and posterior sides, and the smaller size of the plates gives us twelve plates in this range: ten of them are joined together, and two of them are the separated intercalated plates upon the ambulacral side. One of the plates abuts upon the lower side of the mouth. The fifth range is injured in our specimen, so that it is a matter of some doubt, whether it consists of eight or nine plates, but the inde- terminable space is only the width of one of the other plates, and, therefore, we conclude, it consists of eight plates. This range is well nigh broken in the posterior part of the ambulacral side, where two plates unite only at an angle instead of b^^ their sides. The sixth range is composed of about twice as many plates, as ten plates shown, in our specimen, abut upon five in the fifth range. Only part of the seventh, eighth, ninth and tenth ranges are preserved, in the specimen illustrated; enough, however, to show that the plates are of unequal size and not regularly disposed into ranges. Another specimen shows, that, at about the tenth or eleventh range, the body begins to taper for the column below, but we are not able to describe the plates upon this part of the body. The surface of the i)lates is pustulated, and numerous pores pene- trate the bod}^ through these pustule-like prominences, but between them the plates appear to be barren of pores. This species was collected by Fred. Braun, Esq., and the author, near the base of the Niagara Group, in Ripley county, Indiana; the specimens described, however, are in my collection. Description of Twelve New Fossil Species. 107 HOLOCYSTITES ROTDNDUS, 11. Sp. Plate IX., fig. 3, summit view, natural size. fig. 3a, view of the right side, natural size, fig. 36, basal view, natural size. Body spheroidal, swelling most upon the left side, supported upon a column, and covered by about six ranges of plates. There are about seven or eight basal plates, and from twelve to fourteen plates in each of the succeeding four ranges. The sixth range is too much involved among the apertures, on the summit, to determine from our specimens the number of plates. The ambulacral orifice is situated centrally, upon the apex of the summit, posterior to the mouth. It is subelliptical in outline, and surrounded by four small arm bases. We can not determine, from our specimens, the number of plates that abut upon this orifice. The mouth is situated sub-centrally, and directly anterior to the ambulacral orifice. It is sub-circular in outline. An anal aperture is observable, between these two larger openings, in the plate, which abuts upon the mouth, and it is situated a little nearer to the mouth than to the ambulacral orifice. Upon tlie summit of this species, there are a number of conical de- pressions, irregularly distributed, none of which penetrate the plates, so far as observed, and some of them evidently do not. On the specimen illustrated there are twenty-two of these conical depressions, and on another specimen of the same species, there are only twelve. No function can be ascribed to them. Some of the plates, upon the summit, are possessed of peculiar elongated pores on the outer surface, but no pores have been ob- served on the other plates, though they probably exist. This species was collected by Prof. A. G. Wetherby, to whose col- lection the type belongs, near the base of the Niagara Group, in Ripley county, Indiana. HOLOCTSTITES SUBROTUNDUS, n. Sp. Plate IX., fig. 2, basal view, natural size. fig. 2a, summit view, only part of the plates preserved. Body subrotund, and possessed of a column. Plates generally large. The first range of plates at the point of columnar attachment too much anchjdosed, in our specimens, for accurate determination. The next three ranges are each possessed of thirteen plates. Those covering the ventricose or posterior side of the specimen very large. A plate, in the fourth range, forms part of an arm support, hence the 108 Cincinnati Society of Natural History. body may be said to be covered b}- four rauges of plates, with the ex- ception of some irregular plates, which ma}' be found at the base, and those surrounding the mouth, and those within the area surrounded by the arm bases. The plates are generall_y pentagonal or hexagonal, but on the ante- rior side the}^ do not come regularly together, in each range, and a plate in the second range abuts against three plates in the third range, instead of two, which produces, at this place, heptagon al plates. The only arm known rested upon two plates, supported by a third, as shown by the base. The mouth and ambulacral orifice unknown. All the plates are perforated by numerous elongated pores. This species was collected by Prof. A. G. Wetherby, in the lower part of the Niagara Group, in Riple}' county, Indiana. The specimen illustrated belongs to his collection. HoLOCYSTITES DYERI, n. Sp. Plate X., fig. 3, view of the right side. Bod}^ very large, and somewhat obovate, in form. It is covered by about twelve or thirteen irregularly disposed ranges of plates. The first range, above the basal plates, consists of fifteen plates. The second range has one or two more. The number increases in the third, fourth, fifth, sixth and seventh ranges, though the plates are so irregu- larlj' disposed that it is hardly proper to speak of them as ranges. In the most ventricose part of the body, a I'ange, if I'egularly disposed, would consist of about twenty-five plates. The plates are of unequal size, usually hexagonal or pentag-onal, but sometimes heptagonal or octagonal. They are more or less convex and highly poriferous. The pores are elongated upon the outer surface, and distributed without apparent order or arrangement. The summit of our specimens is so much injured, that it shows only one of the arm bases, and consequently we can not define the apertures. The species, however, is readily distinguished by its large size and obovate form. The specimen has a length of three inches; diameter at the base, 67-lOOtIis inch; diameter of the most ventricose part, 2 33 lOOths inches. The specimen described was found by C. B. Dyer, Esq., in whose honor it is named, in the lower part of the Niagara Group, in Ripley county, Indiana. rioLOCYSTITES VENTRICOSUS, U. Sp. Phite X., fig. 4, view of left side of ventricose part. This species is founded upon a single specimen, which is broken off Description of Twelve New Fossil Species. 109 both at the upper and lower ends. It is three inches in length, and has a diameter of 1 1-lOth inches, where it is broken off at the lower end, and 1 9-lOths inches at the upper end. The greatest diameter of the most ventricose part is 2 2-lOths inches. From the appearance of the specimen we infer that ^ inch would reach the summit, at the upper end, and that 1^ inches would reach the column, at tlie lower end. This addition would make a complete specimen, about five inches in length. The bod}' would, therefore, be described as very long, grad- ually enlarging from below, and ventricose in the upper half. The body is covered hy plates of unequal size and irregular form. They var^- from a pentagon to a nonagon. and from a diameter of 1-lOth to a diameter of 6-lOths inch. In the three inches in length of the specimen illustrated, if the plates were regularly disposed, there would be about ten ranges. The plates are all more or less convex, and perforated b}^ numerous pores. I collected this specimen in the lower part of the Niagara Grouj) in Ripley county, Indiana. I have now described fourteen species of Kolocystites, from the lower part of the Niagara Group of Indiana, and have been unable to identify a single species, with those found in the Niagara Group of Illinois and Wisconsin. Fragnoents of other species have been found, in Indiana, but those, which I have seen, are not in a condition to be defined. Anomalocrinus caponipormis (Lyon). Plate IX., fig. 4, basal view. fig. 4a, view of the summit. The bod}^ below the arms is almost flat, except as to the curving up on the az3'gos side; and the entire height of the bodj-, from the junction with the column, to the top of the plates preserved on the dome is onl}- a little over one third of the width of the body, and is less than the width of either one of the arm-bearing radial plates. The five basal plates, when united, form a large pentagonal figure. The first radial on the right of tlie azygos side, is much the largest plate of the body. Two sides rest upon two basal plates ; one side joins the first azygos radial; one joins the second azygos radial; one , supports the single azygos inter-radial; one joins the posterior first radial, and another the posterior second radial. These seven sides by no means bound the plate, for it curves over upon the vault, and a wide cleft or yoke-like opening extends from the plates covering the dome, to the center of the plate, where the free arm plates rest. 110 Cincinnati Society of Natural History. The first radial on the left of the azygos side rests upon two basal plates, and joins the first and second azjgos radials upon the right and the second, first radial upon the left, and curves over on the vault, and is widel}^ cleft to the center where the free arm plates rest. The second first radial on the left of the azygos side rests upon two basal plates, joins the first radial upon the left of the azygos side, and the first and second posterior radials, and curves over on the vault, and is widely cleft to the center, where the free arm plates rest. The posterior first radial rests upon two basal plates, joins the right anterior first radial and the second, first radial on the left of the azj-gos side, and supports upon its long arcuate upper side the second radial. The posterior second radial rests upon the posterior first radial, joins one side to the ritiht anterior first radial, and another to the second first radial on the left of the azygos side, curves over upon the vault, and is widel}' cleft to the center, where the free arm plates rest. The first az^'gos radial is a little smaller than the posterior first radial, and rests upon two basal plates, joins the left and the right anterior first radials, and supports upon the upper side the azygos second radial. The az^^gos second radial rests its longer side upon the first azj'gos radial; upon its leftside it joins the left anterior first radial and curves over upon the vault; upon its right side it joins the right anterior first radial and supports the azygos interradial plate. It is also cleft for the support of the free arm plates, but the interradial plate forms one side of the yoke-like opening, from the free arm plates to the smaller plates covering the dome. The single interradial plate rests between the right anterior first radial and the azygos second radial, and articulates with these plates upon a serrated edge. It rises higher than the plates preserved in our specimen, and curves toward the left anterior plate, while three phxtes of the dome, in the direction to whicli its curvature points, stand upon edge, showing quite clearly that the dome was possessed of a sub-cen- tral proboscis on the azygos side. The plates covering the outer rim of the dome, commencing at the three preserved plates of tlie base of tiie proboscis, on the left of the azygos side, and extending around to tlie azygos interradial, are pre- served in our specimen. The preserved plates, in this rim, form a row from three to five wide, and show the dome very gradually arching toward the proboscis. They are irregular and unequal in size, the largest being about l-8th of an inch in diameter. The yoke-like cleft of each radial i)late, from the base of the arm to Description of Twelve New Fossil Species. Ill the plates of the dome, is covered by an arch composed of minute plates. The length of an arch is about 4^ lines, width 3 lines, and eleva- tion 1^ lines. This arch, extending from the dome to the furrow upon the inner side of the arm (if not farther), is a striking peculiarity-. The specimen illustrated and described was found in the Hudson River Group, at Cincinnati, and is from the collection of 0. B. Dyer, Esq. This species was described and illustrated, b}'^ Sidue}' S. L^'on, in 18G9, in the Trans. Am. Phil. Soc, vol. 13, under the name of Atax- ocrinas caponiformis. His specimen was somewhat crushed, and hence his illustrations do not show several peculiarities, which are presented, in our illustrations. In the proceedings of the Acad. Nat. Sci. Phil., in 1865, Meek and Worthen proposed the name Anomalocrinus as a subgenus, but did not clearly define the generic characters. In the Illinois Geo. Sur., vol. 3, in 1868, however, they more particularly described the subgenus, and illustrated the species, A. incurvus. The diagrammatical showing of the structure is very erroneous, which may have misled Prof. Lyon, but the description is sufficiently clear to give Anomalocrinus priority over Ataxocrinus. In 1873 (Geo. Sur. of Ohio, pt. 2, Palaeontology ), Prof. Meek re- described the Anomalocrinus incurvus, and illustrated it from a speci- men in my collection, and took the position, thiit Ataxocrinus caponi- formis is the same crinoid, and therefore a synonym. I followed him, in classing the latter as a synonym, in the " American Palaeozoic Fossils," in 1877. But this was, certainly, error, and I am glad that I have the opportunity of restoring the name caponiformis.^ to a spe- cies, so distinct, from incurvus, if we regard the specimen illustrated, in the Ohio Palaeontology, as a type. Let us look at some of the differences. The incurvus has six basal plates, the sixth plate being quadrangular and below the right ante- rior first radial. This radial rests upon three basal pieces instead of two. This is an essential difference, but we need not stop here, for the general form ot the body and proportion of the plates are very different in the two species: The body of the caponiformis forms a broad almost flat disk, while the incurvus has a moderately deep cup and expands on the azygos side, only about a line be^-ond the perpendicu- lar, with the column. The measurements of ihe two specimens are as follows:* * lu this measurement I follow Meek in calling the azygos side the posterior side, in order to make the comparison with his measurement clear, though in the descrip- tion the azygos side is treated as the anterior side. 112 Cincinnati Society of Natural History. A. incurvus — Height of bod}-, on the posterior side, 0.67 inch, and on the anterior 0.43 inch; greatest breadth 0,92 inch; thickness of column at its connection with the body 0.34 inch. A. caponiformis. — Height of body, on the posterior side, 0.67 inch, and on the anterior 0.35 inch; greatest breadth 1.65 inches; thickness of column at its connection with the body 0.34 inch. The width of the right anterior first radial in A. caponiformis is 9- lOths inch, in A. incurvus it is 5-lOths inch, while the height of the former is 36-lOOths, and the latter 28100ths. Other plates show the same difference between the relative proportions of width and height in the two species. The five basal plates in A. caponiformis form a pentagon of al- most equal sides, while the six basal plates in A. incurvus., form arcuate faces to a sub-pentagonal figure. The cup of the latter is subangular in the direction of the arms, a feature not possessed by the former. These and many other minor differences may be pointed out, I know of no species among the palaeozoic crinoids, which is held to include forms so distinct as these, while subgenera are formed upon peculiarities of much less importance. A word ought, perhaps, to be said upon the question, whether the specimen described and illustrated, in the Ohio Palaeontology, is specifically' the same as the one described in the Illinois Geo. Sur,, upon »vhich the Anomalocrinus inciirvus was established. I have before said, that the diagrammatical structure, in the 111. Geo. Sur. is erroneous, and where such a poor representation is made, we may fairly attribute it to the imperfection of the specimen. The specimen may have possessed six basal plates and yet only shown five, on account of the imperfect preservation or the anchylosing of the plates. The general outline of the specimen as represented on the plate, is the same as that represented in the Ohio Palaeontology. I, therefore, conclude, that the specimens represented in the Illinois and Ohio Surveys both belong to Anomalocrinus incurvus. I may add that the specimen of Anomalocrinus caponiformis, here illustrated and defined, is the only one I have ever seen, and it is, therefore, extremely rare. It is quite true, too, that Anomalocrinus incurvus is very rare, and that but few collectors have a moderately good specimen of it. TuicnopnYCus VENOfeUM, n. sp. Plate IX., fig. 5, showing diagonal lines, natural size. fig. 5a, showing the irregularity of the elevated lines, natural size. This plant, as known to me, consists of a half cylindrical stem. Description of Twelve New Fossil Species. 113 covered upon the cylindrical surface with irregular and inconstant elevated lines, varj-ing in their course from longitudinal with the steni, to diagonally radiating from a central line. If the stem was originally cylindrical, one half of it seems to have been invariably destroj-ed in the rock, so as to leave a flat under surface. The greater diameter is generally about an inch. No bifurcation has been observed. Collected in the Hudson River Group at Cincinnati. The specimens illustrated are from my own collection, but specimens equally distinct are in the hands of other collectors. It is not common, but it is more abundant than either T. Imosum or T. sulcatum. PiSOCRINUS GEMMIFORMIS, U. Sp. Plate IX., fig. 6, basal view, natural size. fig. 6a, basal view, magnified two diameterS;___,^Xr' fig. 6b, side view, showing the hexagonal plate of the calyx. fig. 6c, magnified side view, showingTIie hexagonal plate of the calyx. The body is small, round, smooth, and possessed of a deep circular cavity, at the base, for the reception of the columnar attachment, which somewhat resembles a bell-mouth. The five basal plates united, form a triangle almost equilateral. The three plates, in the angles of this triangle, have, each four sides; the other two plates have three sides each. The two plates, in the angles of the triangular figure, which are not separated, b}^ a triangular plate, are the larger plates, and of equal size. The two triangular plates are the smaller plates and of equal size. In thus describing the plates, I have treated them, as if they each presented an angular point, at the union, with the central part of thecolumn; but this is not strictly true, for a small foramen connects the bod}', with the central opening of the column, and each plate abuts upon this foramen, which gives to each plate an additional i^ide, though a very minute one. The five basal plates are succeeded, by three comparatively large plates, which form the principal part of the calyx. Two of these plates are radials, the third is separated from the arras by two small intervening plates. One of these large radials is supported, upon two basal plates; unites two sides, with the adjoining plates of the calyx; supports upon two upper sloping sides, two of the smaller radials; and upon its upper face an arm; making an heptagonal plate. The other large radial has the same form, except that it is supported, upon three basal plates, and is therefore octagonal. The third plate, forming the calyx, is supported, upon three basal plates: unites two sides, with the adjoining plates of the calyx; and suppoits upon its two 114 Cincinnati Society of Natural History. upper sloping sides two of the smaller radials; it, is, therefore, an he^- / agonal plate, much wider than long. Two of the smaller radial plates unite over the middle part of the hexagonal plate, upon which, they rest their longer arcuate sides. The other inferior side of each is much shorter, and rests in a little arcuate notch, in the superior part of the adjoining larger radial. The other smaller radial plate is supported between the two larger radials, by a small arcuate side, in the superior part of each. The species as may be seen from the foregoing description has five arms, three of which are supported upon the smaller radials, and the other two b}^ the larger radials. Our specimens do not preserve the arms, but the arm bases are comparatively' large, for such small speci- mens, and show that the arms must have been crowded close together. One of the arm plates possesses a ver}^ wide and deep ambulacral fur- row, for so small a plate. The column is small and round. This is the first species described, in America, that has been re- ferred to the genus, Pisocrinus, of M. de Koninck. It is distinguished from the European species by the shape of the plates. In the European species, two of the basal plates unite in an angle of the triangular figure formed by the basal plates, and, therefore, only one side of the triangle is formed by the sides of three basal plates. The other two sides, being each formed, by two sides of the basal plates. In our species, two of the sides of the triangle, formed by the basal plates, are each made by the sides of three basal plates, and only one by the sides of two basal plates. In the European species, the large plate, occu- LJ^^ pying the position of the he/agonal plate, in our species, is pentagonal. It rests upon two basal plates, while, in our species, it rests upon three. The arm bases are also quite distinct, in their shape; but as our species falls into the generic formula of Pisocrinus, we regard these distinc- tions as of only specific importance. Moreover the j^enus Pisocrinus is only known, in Europe, in rocks of upper tsilurian age. This species was collected by the ardent and indefatigable palaeonto- logist, Fred. Braun, Esq., and by the author, in the lower part of the Niagara Group, in Ripley county, Indiana; the specimens illustrated, however, are from n\y collection. Megistocrinus pileatus, n. sp. Plate X., fig. 1, (liagrainmatieal view from a flattened specimen, fig. la, summit view, fig. lb, basal view. The body is deeply depressed, for the columnar attachment; sub- circular at the arms, being slightly elongated from the anterior to the posterior side; and convex on the dome. Description of Twelve New Fossil Species. 115 The illustrated flattened specimen shows the basal plates united, forming a hexagon. The six first radials are hexagonal, wider than high, lower and upper margins parallel, and the lower a little longer than the upper. Four of the second radials are hexagonal and the other two appear to be pentagonal, one of them is certainly pentagonal. Five of them are wider than high, while one pentagonal plate is higher than wide. Five of the third radials are represented, each of which is pentagonal and supports, upon its upper sloping sides, two secondary radials. Beyond this, we can only trace part of the plates, which are supported by two of the radial series, and if the pentagonal second radial is upon the azygos side, then we have the posterior radial series, and the right posterior radial series. The first secondary radials in these series are heptagonal, except the one, upon the right of the right posterior series, which seems to be hexagonal. The second secondaiy radials are hexagonal, and as far as can be observed appear, each, to support three radial series. This would give to a specimen, if there was no irregularity, thirty arms. But we find the arms, thrown, in clusters of three, only part of the way around the body, the arrange- ment being disturbed, upon the azygos side; the actual number of arms is only twenty-seven. Four of the first interradials are hexagonal, the other two are hep- tagonal, andjoin the pentagonal second radials. The first interradials are each succeeded by two second interradials, and these by three third interradials. Above the third series of interradials, smaller plates fill the space, between the secondary radials. The first and second radials and the first interradials are within the columnar depression, and are either flat or slightly convex. The third radials, the first secondary radials and the second and third in- terradials are strongly tuberculated, or rise into little cones and form a rim midway between the column and the arms, from which the plates ascend, upon one side to the arms, and upon the other, up into the columnar depression. From this rim to the arms, the plates are either highly convex or conical. The illustration of the basal view of a speci- men, in which the plates are firmly anchylosed, is intended to show this rim and the conical plates. The part of the column preserved in this specimen is no doubt pushed to one side of its natural position. The arms are unknown, except at the point of attachment to the body. There are twenty- seven, as above mentioned. The dome is quite convex, and covered by a great number of small convex plates, of unequal size and irregular form. A plate upon the apex of the dome is a little larger than the others, and is surrounded by about twelve small plates, but no order of arrangement of the plates 116 Cincinnati Society of Natural History. seems to prevail over the dome. The base of a proboscis is shown, in the anterior third of the dome. The dome is also possessed of five spinons plates. One of these is on the posterior part, behind the pro- boscis; one on each side of the proboscis, a little more than half way to the arm bases; and one behind each of the latter, near the arm bases, and a little anterior to the posterior spine, first above mentioned. The column is round, of medium size, composed of alternately thick- er and thinner plates, the thicker projecting beyond the thinner ones, and the articulating f«,ces furrowed by radiating lines. The pentagonal opening is rather large. This species was collected by Prof. W. H. Colvin and the author, in the Upper Helderberg or Corniferous limestone, at the stone quarries near Columbus, Ohio. The specimens illustrated are in my collection. The specific name is from the cap-like form of the body. Stephanockinus osgoodensis, n. sp. Plate X., fig. 7, natural size. fig. la, magnified two diameters. Body small, obconoidal, triangular at the base, or rather hexagonal, because three very obtuse angles are formed, at the junction of the plates, and slightly pentagonal above. The basal plates are longer than wide, and united, leave a small de- pression, at the base, for the columnar attachment. Each plate is sharply angular, in the middle of the lower half, but the angle fades awa}^ in the upper half. An obtuse angle is formed, at the junction of the plates, in the lower halt, which also fades away, in the upper half. The three basal plates, therefore, form an hexagonal outline, in the lower half, marked by three sharp angles in the middle of the plates, and three obtuse angles, at the sutures. These angles fade away in the upper half, and are not continued on the radials. Two of the basal plates are hexagonal, having each three upper sides, and are of equal size. The other plate is smaller, in the upper half, and having only two upper sides, is pentagonal. The five radial plates form obtuse angles, at the sutures, but the plates are a little convex, which well nigh destroys the pentagonal ap- pearance of the body. These plates are a little longer than wide, three of them are heptagonal and two hexagonal. The heptagonal plates have two lower sides, eacli of which is supported, upon a basal plate, while the hexagonal plates have only one lower side resting upon a basal plate. The upper margin of each plate is deeply excavated, for the reception of the psendo-ambulacral structure. The plates of the third range are very small, if they exist at all. The DescripHvn of Twelve New Fossil SjJecies. 117 junction of the radials is very distinct, in our specimens, two thirds of the distance, from the base of the pseudo-ambulacral structure, to the highest extension of the plates, and the line of separation appar- ently extends to the point. If there is, therefore, a plate capping each of these points of extension, it is minute. This extension of the plates is distinctly angular, in the middle, at the line of the junction of the plates. No part of the ambulacral or pseudo-ambulacral structure is known. Prof Hall has suggested, that there is no generic distinction, be" tween Codaster aud Stephanocr inus . This being the case, Stejihano- crinvs has priority over Codaster, unless Conrad's geuus is to be con- demned for imperfect definition and illustration. This species was collected in the lower part of the Niagara Group, at Osgood, Indiana. The specimen illustrated is from my collection. PALiEASTER HARRISI, n. Sp. Plate X.J fig. 2, natural size. fig. 2a, magnified two diameters. Bod}- pentagonal; rays twice as long as the diameter of the central part of the body, flexuous, and quite uniformly tapering, to acute points, at the apices. The ambulacral furrows are very narrow. The adarabulacral plates are like small, flattened, sub-circular, in- dented disks, arranged with their flattened aud iudeuted faces in con- tact. The}' diminish, in size, ver\- gradually, from the body, toward the points of the rays, and number from twenty-five to thirty, on each side of the ambulacral furrows. There are ten oral plates, at the junction of the adambulacral series, each one of which has a somewhat triangular outline, and extends the most acute angle, toward the central part of the bod}-. This species is destitute of the marginal plates, which usually characterize the species of this genus, aud seem to protect aud strength- en the adambulacral plates, and thereby protect the extension of the animal, in the ambulacral furrows. The ray which is broken off", at the distance of seven adambulacral plates, from the oral plates, shows two plates forming the bottom of the ambulacral furrow, and that the ray, at this distance from the body, is covered, by five series of dorsal plates. The first dorsal series, upon each side of the rays, consists of sub- circular plates, each of which is possessed of a sharp central spine. These plates cover, upon the outside, the line of junction, between the adambulacral plates aud the two series of plates, which form the bottom 118 Cincinnati Society of Natural History. of the anibulacral furrow, and extend over, upon the plates, in the bottom of the ambulaeral furrow, and up, ou the sides of the adambu- lacral plates. The protection established, by this arrangement, and that afforded, by the spines, seems, in this species, to have removed the necessity, for the usual marginal plates. This species is founded, upon a single specimen, embedded in a slab. The madreporiform tubercle, the other plates of the dorsal side, ambulaeral ossicles, and other parts, unknown. This unique specimen was found, in the upper part of the Hudson River Group, near Waynesville, Ohio, and is from the magnificent col- lection of I. H. Harris, Esq., of Waynesville, in whose honor, 1 take great pleasure, in proposing the specific name. LlCHENOCRINUS PATTERSONI, n. Sp. Plate X., fig. 6, natural size. fig. Qa, magnified two diameters. Body robust, round or sub-circular, plano-convex, with a depression around the column, composed of numerous plates of unequal size, having no regular geometrical form, and disposed without any definite order of arrangement. If the plates, in the specimen illustrated, could be arranged, in regular concentric series, there would be, about eighteen ranges, between the column and the circumference. The plates are smooth. The column-like appendage is large, round and composed, as in other species, of five ranges of thin plates. The plates, in this species, are as large as the plates in L. crateri- formis, and as numerous as in L. dyeri, but they have neither the ar- rangement nor form of either. Mr. W. J. Patterson, an energetic and successful ei»llector, in whose honor I have proposed the specific name, found the specimen illus- trated, on the Kentucky shore, opposite the foot of Fifth street, Cincinnati. If it belonged to the rocks exposed, at that place, it would be of the age of the Utica Slate, but if it was drifted, it may be of the age of the Hudson River Group. The small piece of limestone, upon which it rests, is water worn, and furnishes no evi- dence to assist us in determining the age. The only reason 1 have, for thinking, that it may be of the age of the Hudson River Group is, that a few years ago, I found a fragment of the same, or asimilar species, in the upper part of the Hudson River Group, near Versailles, Indiana. All we can say, therefore, of its age, is, that it was found with rocks of the age of the Utica Slate, but under such circumstances, that it may have been transported there, from rocks of the age of the Hudson River Group. AT)L.n. Plate 9. . z-^^^*"'^ ,- la Ga V ^4 ^T'x 6c. 1^ -t"^*? 6 b, .ia ^^•• '^^?: ■<^i,^ KRliBS LlTHOURM-lNt C(lM.-.»r,Cn n.ATE iX. Fig. 1. HoLOCYSTlTES TOMIDUS— Posterior view of the lower part of the body. Natural si/e. Irt. Anterior view of same specimen. Fig. 2. HOLOCYSTITES SUBROTUNDUS — Basal view. Natural size. 2u. Summit view of same specimen — only jjart of the plates preserved. Fig. 3. HoLOCYSTiTES ROTUNDUS — Summit view. Natural size. 3a. View of the right side. Natural size. 36. Basal view. Natural size. Fig. 4. Anomalocrintjs CAPONIFORMIS — Basal view. Natural size. 4((. View of the summit of the same specimen. Fig. 5. Trichophycus venosum — Showing diagonal lines. Natural size. ba. Showing the irregularity of the elevated lines. Natural size. Fig. 6. PISOCRINUS GEMMIFORMIS— Basal view. Natural size. ija,. Basal view, magnified two diameters. 9, in Philadelphia. The earliest geological papers that seem to be worth mentioning, appeared in the Transactions of this Society, and thougli its publications have not been rapid, they continue to appear, and to hold a high rank, whether devoteil to Geology, Palaeontology, or other departments of science. The societ}^ is indebted for its organization to Benjamin Franklin. The first volume of the Transactions appeared, in quarto, in 1771. Mesozoic and Coinozoic Geolo(/y and Palaeontology. 141 Belknap wrote, upon the White Mouiitaius, in 1784; Hutchins, on the Rock and Cascade of the Yonghiogheny, in 1786; William Dunbar, on large mammalian bones found in Louisiana, a set of human teeth found while digging a well at the depth of 30 to 35 feet; and on the Mississi[)pi river and its delta, in 1804, which w^as continued in 1809. B. H. Latrobe described the freestone quarries on the Potomac and Rappahannock, in 1809; and William McClure, in the same 3'ear, pub- lished his Observations on the Geology of the United States, explana- tory^ of a geological map. He divided the formations into four classes, viz: 1st, Primitive rocks; 2d, Transition rocks; 3d, Floetz or Secondar^^ rocks; and 4th, Alluvial rocks. These classes he separated on their mineralogical characters, and he treated of their dip and extent, as far as his observations permitted. And Thomas Jefferson, who had been President of the United States, described the fossil bones of the Megalonyx, in 1818, The American Academy of Arts and Sciences was established in Boston, and commenced the publication of its Memoirs in 1780. The Academy' of Natural Sciences, of Philadelphia, originated in 1812, but commenced its publications in 1817. It soon collected an extensive library of works upon Natural History, largely owing to the fine dona- tion b}^ the generous and disiinguished geologist, William McClure. and at once entered the field as an active society, alive to the im- portance of the publication of facts, as distinguished from theoretical considerations. Its publications, from the commencement, have oc- cupied the first rank in science, and ai'e now, absolutely, indispensa- ble to every American naturalist, and should occupy a shelf in every public library. An idea of the absence of geological information, in this countrj^, in 1803, may be formed when it is remembered that geology was not separated as a science from mineralogy, and that so little was known of mineralogy that it could hardly have ranked as a science ; for later in life, Prof. Silliman, speaking of this period, says, "it was a matter of extreme diflSculty to obtain, among ourselves even, the names of the most common stones and minerals; and one might inquire earnestlj^ and long, before he could find any one to identify even quartz, feld- spar, or hornblende, among the simple minerals; or granite, porphyry, or trap, among the rocks. We speak from experience, and well re- member with what impatient, but almost despairing curiosit}^ we eyed the bleak, naked ridges, which impended over the valleys and plains that were the scenes of our youthful excursions. In vain did we doubt that the glittering spangles of mica, and the still more alluring bril- 142 Cincinnati Society of Natural History. liancy of pyrites, gave assurance of the existence of the precious metals in those substances; or that the cutting of glass by the garnet, and by quartz, proved that these minerals were the diamond; but if they were not precious metals, and if the}^ were not diamonds, we in vain inquired of our companions, and even our teachers, what the}' were." An idea of the low state of Palaeontology, in 1809, ma}' be formed from a letter written by Parker Cleveland, Professor of Mathematics and Natural Philosophy, in Bowdoin College, and published in the Memoirs of the American Academy of Arts and Sciences, vol. iii., part 1. He had carefully watched the digging of two wells through sand and into blue clay; one of them was at a distance of about 20 miles from the sea, and three or four miles from the tide, in Cathance river, and had an elevation estimated at 70 or 80 feet above the tide. This well was dug 20 feet deep. The first 10 feet was through sand and gravel. At the depth of 10 feet a stratum of blue clay was found, which had the appearance and smell of that dug on flats, or near salt marshes. In this clay he found shells; one a clam, "two varieties of muscle," and one large conical form, whose generic name he knew rot, but the same genus he said " is found on our sea shores." The other well was near Brunswick, 80 feet above tide water, in the Androscoggin, and half a mile from the river. At the depth of 12 feet, a four feet stratum of clay was found having the same smell, and containing shells i)lenti- fuUy interpersed, similar to those found in the well near Cathance river. He thought that important advantages would result from possessing a geographical map, indicating the different species of fossil shells, and the places in which they were found, especiall}'^ where the country or coast might be thickl}^ inhabited; because, he says, " with such a map before us, we should be better enabled to compare individual facts, and hence to draw several conclusions." In 1818, Prof. Benjamin Silliman commenced the publication of the American Journal of Science and Arts, which, through his remarkable talent, and unbounded energy, at once took rank with the scientific journals of Europe. It has now reached the 119th volume, and the aid it has rendered the sciences of Geology and Palaeontology is un- measured. In 1818, William McClure prepared an "Essay on the Formation of Rocks, or an inquiry into the probable origin of their present form and structure," which was published in the Journal of the Academy of Natural Sciences, of Philadelphia, vol. i., part 2. He says: "Concerning the nature and properties of the great mass, which 3Iesozoic and Cc&nozoiG Geology and Palaeontology. 143 constitutes the interior of the earth, we are entirely ignorant ; few of our mines penetrate deeper than one fifty -thousandth part of the earth's diameter, under the surface, and none of them go beyond one twenty-five thousandth part of that diameter: it would appear, there- fore, that any mere supposition concerning the actual and present state or the nature of those substances, which form the interior of the earth, is unsupported, as 3'et, by an}' reasonable analogy : and that all con- jectures, concerning former changes, partial or total, in the nature and structure of those substances, are removed still farther from anj-thing analogous, in our present state of knowledge." "The earth being flattened, at the poles, does not necessarily imply its former fluidity. We may be permitted to doubt the analogy between our experiments on bodies moving, in our atmosphere, and the earth's motion in space; our total ignorance of the nature of the fluid, which occupies what is usually called space, tends to render the analogy in- conclusive.'' " May not the mode of casting patent shot be considered as an ex- periment, on the form which liquid bodies would take by a rotar}' motion? A drop of melted lead let fall from the height of 200 feet is completely globular, and not flattened at the poles; the lead might be thrown with force from the top of the tower, which would imitate the centrifugal force, as gravitation does the centripetal force, and make the experiment more analogous." " The supposition that the earth was in a fluid state, when it took its present form, leads to the supposition that it was always so; and that fluidit}^ was the original state of the earth, kept so by all the general laws and order of nature, all of which general order and laws of nature must be totally changed before the earth would take a solid form." "On the supposition that the earth, previous to its fluid state, had existed alwaj's in a solid state, and that some creation or accident produced the fire or water necessary to its liquefaction, we have, in that case, first to suppose that the order and nature of the general laws, which had kept it alwa^'s in a solid state, were totally- changed to produce a fluid state ; and that another change, in the general laws, which produced and kept it in a fluid state, must have taken place pre- vious to its having become again solid." •' It may be doubted whether the uniformit}^, order and regularity of the general laws of nature, which have at any time come within the limits of our observation, can warrant a supposition founded on such complete changes in the mode of action." 144 Cincinnati Society of JSfatural History. "As we do not comprehend either the creation or annihilation of matter, by the origin of rocks, we mean the last change which pro- duced their present form, and the agents that nature employed to give them that form, or effectuate that change." He divided the rocks into three classes (not, however, without ex- pressing grave doubts as to the correctness of his conclusions), as follows : 1st Class — of Neptunian origin. 1st Order: Sand beds, Gravel beds. Sea salt. Sandstone, Pudding-stone, Brown coal, Bog Iron ore, Calcare- ous tufa. Calcareous depositions, and Silex from hot springs. 2d Order, resembling in structure, position or component parts, the 1st order, the evidence of their origin resting on direct and positive an- alogy: Coal, Gypsum, Chalk, Compact limestone, Sandstone, Pudding- stone, Rock-Salt, Old Red Sandstone, Graywacke and Graj^wacke slate, Transition sandstone, Transition limestone. Transition gypsum. Tran- sition clayslate. Anthracite and Siliceous schist. 2d Class — Volcanic origin. 1st Order, thrown out of active volca- noes, and resting on the evidence of our senses: Compact lava. Porous lava, Porphyritic lava, Scoria, Mud lava. Obsidian or Volcanic glass, Pumice-stone and cinders. 2d Order, resembling the 1st order in structure, position, and com- ponent parts, having the remains of craters, with currents of lava di- vei'ging from them; though the fire which may have formed them is now extinct, the evidence of their origin resting on direct and positive analogy: Basalt, Trap formation called by Werner the newest fleets Trap formation, Pitchstone, Pearlstone, Porphyry' attending the trap as above, and Clinkstone. 3d Order, where the rocks resemble the second in texture and com- ponent parts, but the proof of their origin resting on a more distant analogy: Basalt, Trap, Pitchstone, Porphyry, and Clinkstone. 3d Class — the origin doubtful, resembling a little, the 2d order of the 1st and 2d classes, but the analogy neither direct nor positive, amounting onl}'^ to probable conjecture. 1st Order: such rocks as probable conjecture would incline to place in the Neptunian origin: Gneiss, Mica slate, Clay slate. Primitive slate and limestone. 2d Order, such rocks as probable conjecture would incline to place in the volcanic origin: Hornblende, Porphyry, Greenstone, Sienite and Granite. The greatest good that this author accomplished may have resulted from constantly teaching that it is through observation, and not through the imagination, that a knowledge of Geology can be acquired. He said : 3Iesozoic and Ccenozoic Geology and Palosontology. 145 " The short period of time that mankind seem to have been capable of correct observation, and the minute segment of the immense circle of nature's operations, that has revolved during the comparatively short period, renders all speculations on the origin of the crust of the earth mere conjectures, founded on distant and obscure analogy. Were it possible to separate this metaphysical part, from the collection and classification of facts, the truth and accuracy of observation would be much augmented, and the progress of knowledge much more certain and uniform; but the pleasure of indulging the imagination is so su- perior to that derived from the labor and drudgery of observation — the self love of mankind is so flattered by the intoxicating idea of act- ing a part in the creation — that we can scarcely expect to find an}^ great collection of facts, untinged b}^ the false coloring of S3"stems." Ver}^ few facts, which now constitute the sciences of Geology and Palaeontology were, at this time, known, and even later, theories and unwarranted assumptions constituted the greater part of what was taught as Geolog}^ notwithstanding the exhortations of McClure, urging empirical stud3' as against the injurious speculations and pre- tensions founded upon the imagination, or in the zeal to suppress in- vestigation, because it seemed inimical to the teachings of the clei'gy. As a sample of what was taught, we may quote from Prof. Amos Eaton's "■ Index to the Geology of the Northern States," published in 1820. He saj's, page 223 : " I think I may saj'^, with confidence, that the remains of two genera of animals, Anomia and Pecten^ form, at the least, two thirds of all the uecondarj' limerocks in North America. It may be deemed arro- gant to include all the territory of this vast continent. But it has been my good fortune to see specimens of this rock from Canada to Mexico, and from Hudson's river to the Mississippi, taken from numer- ous localities. Perhaps I ought not, however, from these examinations, to infer that there ma}' not be compact limestone of a great extent made up of different organic remains west of the Rocky mountain." Again : "Moses says, the Lord made 'every herb of the field before it grew,' — ' whose seed is in itself,' etc. This accords with the well known fact, that new plants are still springing up from seeds, probably planted at the creation, wherever forests are cut away and other steps taken to prepare particular patches of earth for giving growth to such particular plants. It is even said that pulverized rocks have been known to afford seeds, and to give growth to new plants. Perhaps this latter fact is not well authenticated." 146 Cincinnati Society of Natural History. In short, prior to about 1820, but little was known of North Ameri- can Geolog}'^ and Palaeontology, and except as a matter of historical curiosity, rather than instruction, we need not seek these sciences in earlier publications. The Mesozoic and Ctenozoic rocks, to which this essay will be confined, constitute the superior one fourth part of the geological column, in the sedimentary strata, of the continent; the other three fourths belong to Palaeozoic age. As a striking illustration: the upturned palaeozoic strata, in the little state of New Hampshire, reveal a thickness twice that furnished by the Mesozoic and Csenozoic rocks throughout their extensive distribution to the remotest parts of the continent. It will be observed in the sequel, that I have followed the chronologi- cal order of discovery, as near as practicable, with a view of present- ing the historj^ the development and the growth of these sciences, as well as the facts, within the scope considered, upon which they are now supposed to rest. First, we will pursue the Mesozoic rocks and fossils, and afterward the Caenozoic. THE MESOZOIC AGE. The Mesozoic age is divided into three periods, beginning with the earliest, as follows: 1. The Triassic Period. 2. The Jurassic Period. 3. The Cretaceous Period. The name Triassic was given to the 1st Period in allusion to a three- fold division, which it presents in Germany. The Jurassic derives its name from the Jura mountains of Switzerland ; and the name Cretace- ous is derived from creta, chalk. It will be convenient to consider the Triassic and Jurassic together, because the line of separation, at many places, still remains a matter of doubt, and because the rocks at one place, at one time, have been considered as Triassic, and at another as Jurassic, and even now great uncertainty exists as to their correct classification. TRIASSIC AND JURASSIC. In 1832, Prof Edward Hitchcock* described the New Red Sandstone which extends across the State of Massachusetts, on both sides of the Connecticut river. In 1833,* he referred all the sandstone in the valley of the Connecti- cut to the age of the New Red Sandstone of Europe. The opinion was * Geo. of Maes. Jleaozoic and Ccenozolc Geology and Paloiontology. 147 fortified by the organic remains which liad been collected at that time, as well as by the mineral character of the rocks. He described the rocks as micaceous sandstone, variegated sandstone, brecciated sand- stone, shales, argillaceous slate and limestones. He discussed the dip, direction and thickness of the strata, and the occurrence of valuable minerals. In 1836,* he described, from Massachusetts, Ornithichnites giganteus, now Brontozotcm giganteum, 0. tuberosus, and 0. tuberosus, var. du- bius, now B. loxonyx, and B. sillimanimn, 0. ingens, now Tridentipes ingens, 0. diversus, now Tridentipes elegans, 0. minimus, now Argo- zoum minimum, 0. palmatus^ and 0. tetradactylus. In 1839, Prof. H. D. Rogersf described the Red Sandstone of Penn- sj'lvania, which stretches through the central and northern portions in a long and irregular tract, from New Jersey to Maryland. It is found in the vicinity of Reading, and near the Potomac river, from which place is quarried the famous Red Sandstone used in Wash- ington city. Prof Rogers proposed to call this the " Middle Sec- ondary Red Sandstone formation," because it is higher than the Coal Measures, and below the Cretaceous Green Sand of New Jersey. In 1841, W. C. RedfieldJ described, from the Connecticut Valley, Fal- ceonisctis macropterus, now Ischypteims macropterus, P. agassizi^ P. ovatns, Catopterus angutlliformis, C pai'vulus, and C. macrurus, now Dictyopyge macrura. In the same 3'eai-, Prof Hitchcockg said the New Red Sandstone, extending from New Haven to the north line of Mass., in Northfield, occupies a narrow synclinal trough, having a width of about 20 miles, from East Hampton, in Massachusetts, to the Sound at New Haven; but from East Hampton to Northfield a width of only 6 or 7 miles. He described Fiicoides connecticiitensis, F. shepardi, Sauroidichnites barratti, S. heteroclitus, now Ancyropus heteroclitus, 8. minitans^ now Plectropterna minitans, S. longipes, S. palmatus, and 8. polemarchus, now Polemarchus gigas. He used the word 8auroidichnites as a gen- eric name, but described it as the name of a suborder under the class Ichnolite. He also described Ornithoidichnites as a sub-order, and used it as a generic name, and described numerous species under it. These names have, however, been abandoned, and the species have also been abandoned or referred to genera properly defined. The * Am. Jour. Sei. and Arts, vol. xxix. t 3d Ann. Rep., Pa, X Am. Jour. Sci. and Arts, vol. xli. § Geo. of Mass. 148 Cincinnati Society of Natural History. Ornithoidichnites are 0. giganteits, 0. tuberosus, 0. expansus, 0. cune- atiis, 0. parvulus, 0. ingens, O. elegatis, 0. deani, O. tenuis, 0. macro- dactylus, 0. divaricatus, 0, isodactylus, 0. delicatulus, 0. minimus^ 0. gracilior, and 0. tetradactylus. He afterward, before the Association of American Geologists and Naturalists, described some species under these names, which he subsequently referred to other genera. In 1842, Prof. J. G. Percival* described the existence of these rocks in two places in Connecticut, as follows: The larger secondary- formation extends from Morris Cove, on the east side of New Haven Harbor, on the south, to the north end of North- field village, in Mass., on the north, a distance of nearly 80 miles. Its o-reatest width, near the central part of the basin, exceeds 20 miles. This basin is entirely surrounded b}^ Primary rocks, except at New Haven Harbor, where, however, Primary rocks form the two points on the opposite sides of the basin. The smaller secondary formation ex- tends 6 to 7 miles from south to north, and at its widest point scai'cely exceeds two miles in breadth, and is about equally included in the towns of Woodbury and Southbur3^ It forms a small isolated tract, nearly in the center of that part of the Western Primary, within the limits of the State, and nearly 15 miles west of the larger secondar}' formation. The rocks of both these formations consist of Red Sand- stones, Conglomerates and Shales, and the physical characters and oro-anic remains indicate a peculiar relation to the New Red Sandstone of Europe. In 1843, Prof W. W. Matherf described these rocks in the State of New York, as follows: The New Red Sandstone occupies that portion of Rockland county, from Grassy point along the base of the Highlands to New Jersey-, and eastward to the Hudson, but a portion of its area is covered over by trap rocks. It has also been found in a small area in Richmond county. In color, it va'ries from chocolate brown, through brick-red and gray to white; in texture, it varies from pebbly conglomerate, through common sandstone, fissile and micaceous sandstone, to shale; and in composition, from, perfectly siliceous to an argillo-calcareous marl. Where the trappean rocks have cut through the strata, or have spread laterall}' between them, their texture and appearance are much modified, and appear to have been subjected to the action of heat, which has partly melted them, or rendered them more compact and hard, like a hard-burnt brick, or has made them metalliferous. ■:• Geo. of Conn. t Geo. of N. Y. Jlesozo/c and Ccenozoic Geology and Paleontology. 149 In the same 3'eai', Prof. W. B. Rogers* described, from the Trias of Eastern Virginia, Equisetum aruvdiniforme. Calamites planicostatus, Tceniopteris magnifolia, Zamites obtusifolms, and Z. tenuistriatus. In 1847, Sir Charles Lyellf described the Triassic coal field, on the James i iver, near Richmond, Virginia, as follows: The tract of country occupied by the crystalline or hypogene rocks, which runs pai'allel to the Alleghany mountains, and on their eastern side is in this part of Virginia about 70 miles bi-oad; in the midst of this space the coal-field occurs in a depression of the granitic and other hj'pogene rocks, on which the coal rests, and by which it is surrounded, along its outcrop. The length of the coal-field, from north to south, is about 26 miles, and its breadth varies from 4 to 12 miles. The James river flows through the middle of it, about 15 miles from its northern extremity, while the Appomattox traverses it near its southern borders; on its eastern side it is distant about 13 miles fi'om the city of Richmond; it occupies an elliptical area, the beds lying in a trough, the lowest of them usually highlj^ inclined, where the}^ crop out along the margin of the basin, while the strata higher in the series, which appear in the central part of the basin, are very nearl}^ horizontal. The general strike is about N.N.E. and S.S.W,, while that of the nearest ridges of the Appala- chian chain is about N.E. and S.W. A great portion of these coal measures consists of quartzose sand- stone, and coarse grit, some of the beds, in the lower part of the series resembling granite or syenite, being entirely composed of the detritus of the neighboring granitic and s^'enitic rocks. Dark carbonaceous shales and clays, occasionally charged with iron ores, abound in the proximity of the coal seams, and numerous impressions of plants, chiefl}' ferns and zamites, are met with in shales, together with flattened and prostrate stems of Calamites and Equisetum. These last, how- ever, the Calamites and Equisetum, are very commonly met with in a vertical position, more or less compressed perpendicnlarl3^ That the greater number of Calamites standing erect in the beds above and between the seams or beds of coal, which I saw at points many miles distant from each other, have grown in the places where the}^ are now buried in sand and mud, I entertain no doubt. This fact would imply the gradual accumulation of the coal measures during a slow and re- peated subsidence of the whole region. The coal seams have hitherto been all found at or near the bottom of the series, and the plants in beds below or between them, or immediate- * Trans. Ass. Am. Geo. and Nat. t Quar. Jour. Geo. .Sci., vol. iii. 150 Cincinnati Society of Natural History. ly overl3ang. One or two species of shells (Posiclonomya?) also occur in the same part of the series, at a small height above the coal-seams, and above these a great number of fossil fish, chiefly referable to two nearly allied species of a genus, very distinct from any ichthyolite hitherto discovered elsewhere. Above these fossiliferous beds, which probably never exceed 400 or 500 feet in thickness, a great succes- sion of grits, sandstone and shales of unknown depth occur. They have yielded no coal, nor as yet any organic remains, and no specula- tor has been bold enough to sink a shaft through them, as it is feared that toward the central parts of the basin they might have to pass through 2000 or 2500 feet of sterile measures before reaching the fundamental coal seams. The coal is separated almost everywhere into three distinct beds, and sometimes into five. The upper bed is the thickest, except in a few places where a thin layer of coal is found above it. In some places the main seam of coal is from 30 to 40 feet thick, and at Black- heath it is seen actually to touch the fundamental granite, or is parted from it only by an inch or two of shale. A section at the Midlothian Pit, half a mile south of Blackheath, on the eastern outcrop of the coal, is as follows: Sandstone and shale, 570 feet; slate with calamites, 1^ feet; sandstone and shale, 43 10.12 feet; sandstone with calamites, 8 feet; sandstone and slaty shale, 48 feet; slate and long vegetable stems, 2^ feet; sandstone, 6^- feet; slate with calamites, 5|- feet; sandstone, 14 feet; black rock, 13 feet; slate, 5 feet; main coal, 36 feet; sandstone not laminated, 5 feet; slate, 4 feet; coal, 1 foot; slate, 3 feet; sandstone or grit, 7 feet. Total, 773 10-12 feet. This rests upon granite of unknown depth. Some deduc- tions must be made for the thickness of the beds on account of the in- clination at an angle of 20 degrees. The unevenness of the granite floor is extremely great, and the thick- ness of the coal seams quite variable. The disturbances have been extremel}^ great, and dikes of'greenstone occur in some places 20 feet in thickness. Some of the upper beds of coal have been reduced to coke, by being deprived of their volatile matter, while others below remain unaltered and bituminous. This is accounted for on the ground that the greenstone, although intrusive, has made its way between the strata like a conformable deposit, and has driven the gaseous matter from the upper coal, while its influence has not extended to Mower seams. A remarkable exomple of coke, in a bed eight feet in thick- ness, occurs at Edge-hill, a locality between five and six miles north of James river, and ten miles north of Blackheath, being on the Mesozoic and Ccenozoic Geology and Paleontology, 151 eastern outcrop of the basin, and within 500 yards of the granite. The measures passed through above the 8 feet bed of coke, are 110 feet thick, including a conformable bed of blue basalt, IG feet thick. The shale immediately below the trap is white for 11 feet, and then 25 feet of dark, leafy shale succeed, below which comes the bed of coke, resting on white shale; and lower down, coal-measures with two seams of inferior coal, each about 4 or 5 feet thick. The shale, 47 feet thick, interposed between the basalt and the coke, exhibits so many polished surfaces or slickensides, and is so much jointed and cracked, and in some places disturbed and tilted, that we may probably attri- bute the change from coal to coke, not so much to the heating agency of the intrusive basalt, as to its mechanical effect in breaking up the integrity' of the beds, and rendering them permeable to water or the gases of decomposing coal. In some places, in the same district, where the upper part of a seam is coke, the lower is coal, and there is sometimes a gradation from the one to the Other, and sometimes a somewhat ab- rupt separation. In the same year, C. J. F, Bunbury* described, from North Carolina, Ifeuropteris linncBifoUa, PecoiHeris bullata, Filicites Jimhriatus, and Zamites gramineus. And Prof. Hitchcockf described, from Massa- chusetts, Brontozouni moodi,, and B. paralleluia. He also discussed the Trap Tuff or Volcanic grit of the Connecticut valle}', with the bearing of its history upon the Trap Rock and the Red Sandstone. In 1848, Prof. J. W. DawsonJ describsd the New Red Sandstone of Nova Scotia, which extends on the north side of Cobequid bay, from Moose river to the point at the mouth of North river, and on the south side, from the mouth of Shubenacadie to the mouth of North river. It rests upon carboniferous strata, and, in some places, presents cliffs rising to an eminence of 400 feet. It is also extensivel}'^ developed at Blomidon, in the valle}' of Cornwallis, on the south side of the Bay of Fundy, and at other places. This sandstone appears to have been deposited in an arm of the sea, somewhat resembling, in its general form, the southern part of the present Ba}^ of Fund}-, but rather longer and wider. This ancient ba}' was bounded by dis- turbed Carboniferous and Silurian strata. The evidences of volcanic action are numerous, and in some places showing great quantities of melted rock brought to the surface, without altering the soft arenace- ous beds through which it has been poured, and whose surface it has •'•'■ Quar. Jour. Geo. See, vol. iii. t Am. Jour. Sci. and Arts. 2d Ser., vol. iv. I Quar. Jour. Geo. Soc, vol. iv. 152 Cincinnati Society of Natural History. overflowed. The Sandstone contains no valuable nilueials, and no fossils had then been detected in it. In ] 853, Isaac Lea* described, from the Triassic of Lehigh county, Pennsylvania, Clepsysaurus pennsylvanicus. In 1854, Dr. Joseph Leidyf described, from the Triassic of Prince Edward Island, Bathygnatlius borealis. In 1855, Prof. J. W. Dawson described Prince Edward Island, which stretches for 125 miles along the northern coast of Nova Scotia and New Brunswick, has everywhere a low, undulating surface, and consists almost entirely of soft red sandstone and arenaceous shale, much resembling the new red of Nova Scotia, and like it having the component particles of the rock united by a calcareous cement. In some places the calcareous matter has been in sufficient abundance to form bands of impure limestone, usually thin and arenaceous. Over the greater part of the island these beds dip at small angles to the northward, with, however, large undulations to the south, which prob- ably cause the same beds to be repeated in the sections on the opposite sides of the island. In the same year, Dr. E. Hitchcock, jr.;]; described Clathroitteris rec- tiusculus, from the sandstone of Mt. Tom, in Eastharapton, Mass., of the age of the lower Jurassic. In L856, Prof. E. Emmons§ described, from the Lower Triassic of the Deep and Dan river beds of North Carolina, Chondrites gracilis, C. interruptiis, C. ramosus, Gymnocaulus alternatus, Equisetum column- aroides, Dictuocaidus striatus, liutiodon carolinensis, Clepsysaurus leai, Palmosaurus carolinensis, P. sulcatns and Posidonia ovalis, now referred to the genus Esther ia^ and from the Upper Triassic of the Deep and Dan river beds, Strattfjerites obliquus, Acrostichites oblongus, Pecopteris carolinensis, P. falcata, Pterozamites decussatus, Cyca- dites actitus, C. longifoUus, Zamites graminioides, Podozamites lanceolatus, P. longifolius, Lepacyclotes circrilaris, L. ellipticiis, Walchia diffusa^ W. longifolia, Calamites disjimctus, Sphenoglossum quadrifolium, and Posidonia nudticostata, and P. triangularis, which are now regarded as svnonyms or varieties only of Estheria oralis. And in 1857|| he described, from North Carolina, Calamites pnnc- tatus, Walchia angustifolia, W. variabilis, W. brevifolia, W. gracilis, Sphenopteris egyptiaca, Cyclopteris obscura, Odontopteris tenuifolia, * Jour. Acad. Nat. Sci., 2d Ser., vol. ii. t Jour. Acad. Nat. Sci., 2d Ser. vol. ii. I Am. Jour. Sci. and Arts, 2d Ser., vol. xx. i N. Carolina Sur. II Am. Geo., pt. 6. Mesozoic and CcBiiozoic Geology and PalcBontology. 153 Pterozamites gracilis, P. obtu.ncs, P. linearis, P. sjyatulatus, Dioonites linearis, Strangerites planus, Pterophyllum rohustum, Noeggerathia striata, Comephyllum, cristatum, Amhlypterus ornatus, JRahdiolepis speciosus, Jlicrodus la'vis, Pahvonornis striitfiion aides, and Dromath- erium silvestre, the most ancient mammalian remains yet found upon the continent. In 1857, T. A. Conrad* described, from the Triassic black shale at Pliffinixville, Pennsylvania, 3fyacites pennsylvanicus. In 1858, Meek and Haydenf described, from the Jurassic of the Black Hills, Pentacrinus asteriscus, Lingula brevirostra, Avicula tenuicost'ita, Mytilus pertenuis. Area inornata, now Grammatodon inornatus, Panopoia subelliptica, now Myacites subelliptiGus, Am- monites cordiforniis, A. henry i^ and Belemnites densus. Prof, Hitchcock made his report on the Ichnology of New England,^ being " A report on the Sandstone of the Connecticut valley, especially its Fossil Footmarks, made to the government of the Commonwealth of Massachusetts." This work contains a bibliography of North Ameri- can Fossil Footmarks; the histor}^ of the discoveries of the tracks; a discussion of the geological position of the Connecticut river sand- stone, and the evidences tending to prove the Jurassic Age of at least the upper half of the strata, with geological sections across the valley, showing that in general the dip is easterly, varying fron 5° to 50°, The sandstone of the Connecticut valley extends from Northfield, in the Northern part of Massachusetts, across the latter State, and Connecticut to Long Island Sound, a distance of 105 miles. The great- est width is at the mouth of the Farmington river, though Hitchcock's Springfield section was taken where the width is nearly as great. Several ranges of trap rock (greenstone, amygdaloid, and volcanic grit), traverse the sandstone longitudinally, having for the most part a northeasterh' trend, and being generally in the form of interstratified beds or masses. Along the west side of the vallej^ there is a coarse, thick-bedded sandstone, whose prevailing color is red, but which is sometimes mottled, and near the trap and the hypozoic rocks, some- times nearly white. This sandstone underlies the trap. Immediately above the trap, on the east side of the valley, the rocks consist of inter- stratified red and black shales, volcanic grit, micaceous sandstone, compact, fetid blue and gray limestone, and in some places coarse sand- stone and conglomerate. It is in the shales and sandstones Iving im- '' Proc. Acad. 'NaX. Sci., vol. ix. t Proc. Acad. Nat. Sci. 154 Cincinnati Society of Natural History. mediately above the trap, with ver}^ few exceptious, that the organic re- mains— the fishes, the tracks, and plants — are IbuAd. His sections show the thickness of the sandstone above aad below the trap, as follows : Feet. Turner's Falls section, above 4,190 " " below 7,788 Mettawampe section, above 1,584 below 5,283 Mount Tom section, above 8,102 " " below 5.115 Agawam and Chicopee or Springfield section, above. . .11,500 " " " " " " below. . . 8,118 The rock below the trap seems, from the evidences adduced, to be of Triassic Age. He argues that the strata of sandstone were not depos- ited in their present inclined position, and subsequently elevated, and that the sandstone was not elevated or tilted up by the eruption of the trap rock; but, on the contrary, that the lower beds of sandstone were deposited, and perhaps somewhat tilted up, when the trap was ejected from beneath, and spread over the upper part of the strata, and that afterward the work of depositing the sandstone was resumed, and that which lies above the trap laid down. New outbursts of the trap, how- ever, occurred at subsequent periods, but less in quantity, as if the eruptive force were dying out. This is followed by a very learned essay upon the constant and distinctive characters in the feet of animals, and the application of the rules laid down, to the footmarks, which he described and illustrated. He called these tracks Lithichnozoa — stone- track animals; or animals made known by their tracks in stone. The longest trough, and greatest exposure, in the Eastern States, be- gins at Stony Point, on the Hudson, and extending across New Jer- sey, Pennsylvania and Maryland, reaches Culpepper county, in Vir- ginia. It has a length of about 350 miles, and though frequently nar- rowing to a breadth of four or five miles, it expands, in New Jersey, to a width of about thirty six miles. The character ot the deposit very much resembles that of the Connecticut valley. The other Vii'ginia deposit exists in Henry, Pittsylvania, Halifax, Prince Edward and Buckingham counties. Prof Summons first ascertained the extent and general character of the two basins of Triassic strata, in North Carolina. One is in Stokes and Rockingham counties, bordering on Virginia. It begins at Leaks- ville, and runs about thirty miles southwest to Germantown, and is from four to six miles wide. The other commences six miles south of Oxford, in Granville county, and runs soutliwest through a part of Mesozoic and Coinozoic Geology and Palmontology. 155 Orange, Chatham, Moore, Montgomery, Richmond and Anson counties, and extends about six miles into South Carolina. Its length is about 120 miles, and it has a breadth, in the widest part, of 18 miles, though its width is generally about six miles. In 1859, Major Hawn* gave a section in Kansas, of rocks 410 feet in thickness, which he referred to the Triassic. But Dr. Mudge has maintained since that time, that the cretaceous rocks rest directly upon the Permian, in that State. In 1860, Meek & Haj^denf described, from the Jurassic, at the south- west base of the Black Hills, Pholadomya humilis, 3Iyacites nebras- censis, Thracia araiata, T. sublcevis, Cardium ahumardi, Tancredia fp.quilateralis, T. xvarrenana^ Astarte fragilis, A. inornatn, Trigonia conradL Pecten extenuatus^ now C amjjtonectes extenuatus, and from Red Buttes, on the North Platte, Ostrea engelmanni, Pecten hellis- friata, now Camptonectes bellistriatus, and Dentalium s ubquadratum. And Wm. M. Gabb;]; described, from the Triassic in Bath county, Virginia, Ceratites virgin ianus and Phynchonella halli. In 1861, Dr. F. V. Ha3'den,§ in his reconnoissance of the countr}?^ about the headwaters of the Missouri and Yellowstone rivers, found the red arenaceous deposits, usually referred to the Triassic age, exposed in outcropping belts, from one to two miles wide, around the margins of the mountain elevations, but not generally otherwise ex- posed. They occur on the northeastern side of the Big Horn moun- tains, on the west slope of the Wind River mountains, along the moun- tains al the source of the Missouri, around the Judith mountains, and at numerous other places. Frequently thick layers of gypsum are found in the deposits. The thickness observed is from 1000 to 1500 feet. He also found the Jurassic rocks overlying the red arenaceous beds, referred to the Triassic, and possessing an equal geographical exten- sion. They are found along the margins of the Black Hills, along the northeastern slope of the Big Horn mountains; at Red Buttes; along the southwest side of the Big Horn, and the northeast side of the Wind River mountains, sometimes having a thickness of 1000 feet, and containing organic remains in the greatest abundance. In the same 3'ear, Meek & Hay den || described, from the Jurassic, at ■■' Proc. Am. Ass. Ad. Sci. t Proc. Acad. Nat. Sci. X Jour. Acad. Nat. Sci.. 2d Ser., vol. iv. ? Am. Jour. Sci. and Arts, 2d Ser., vol. xxxi, II Proc. Acad. Nat. Sci. 156 Cincinnati Society of Natural History. the head of Wind River valle}^ Gryphma calceola^ var. nehrascensis, Modiola formosa, now Volsella formosa, Neritella nebrascensis, Melania veterna, now Lioplacodes veterna. In 1864, F. B. Meek* described, from the Jurassic, of California, Rhynchonella gnatliophora^ Lima sinuata, L. recticostata., L. cune- ata, Pecten acutiplicatus, Inoceramus ohliquus, I. rectangulus, Triy- onia pandicosta, Mytilus multistriatus, Astarte ventricosa, Uni- cardiinn gibbosum, Myacitus dexjressxis. And W. M. Gabbf described Lima ei'ringtoni, now Aucella erringtoni., and Belemnites jyaci- Jicus. And from the Triassic roclis,+ in the Buena Vista District, and the Humboldt Mining Region of Nevada Territor^^ Orthoceras blakei, Nautilus w'hitntyi,N.mxMicameratus., Ceratites ivhitneyi, Ammonites blakei, A. homfrayi, A. billingsanus, 3Iyacites humboldtensis, Cor- bula blakei, Mytilus homfrayi., Acicala homfrayi, Halobia dubia, Mhynchopterus obesus, Posidonomya stella, P. daytonensis, Myo- phoria alta, Terebratula humboldtensis, hhynchonella lingulata, B. mquiplicata, Spirifera homfrayi., from Sonora Mexico, Panopaa re- mondi, from Gifford's Rancli, Plumas county, California, Avicula mu- cronata, Monotis subcircularis, Pecten deformis. In 1865, F. B. Meek§ described, from the Jurassic, near the south- west base of the Black Hills, Vivii^arus gilli; from the auriferous slates on the Mariposa estate of California,! Aucella erringtoni, var. linguiformis, and Amussium aurarium. J. D. Whitney referred the auriferous rocks of El Dorado, Mariposa, and Toulomme counties, California, to Jurassic or Triassic age. And Bailey and Matthew^ showed that the Trias of New Brunswick consists of three small patches, on the coast of the Bay of Fundy, one at Quaco Head, an- other at Gardner's Creek, and the other at Salisbury Cove. In 186G, Prof. E. D. Cope** described, from the Triassic, at Phoeuix- ville, Pa., Mastodonsaurus durus, now Eupelor durus, and Pter- odactylus longispinus. In 1867, Prof. Swallowf f found, in eastern Kansas, what he sup- posed to be the Triassic, consisting of a series of buff, red and •■■' Pal. ofCiil.. vol. i. t Proc. Cal. Acad. Sci, I Pal. of Cal., vol. i. I Pal. Up., Mo. II Geo. Sur. Cal., vol. i. If Rep. on S. N. Brunswick. '•■'■' Proc. Acad. Nat. Sci. tt Proc. Am- Ass. Ad. Sci, Mesozoic and Cmnozoic Geology and Paloeontology. 157 mottled sandstones, red jind drab marls, buff, magnesian and black limestones, blue and brown shales and gypsum, 344 feet in thick- ness. These rocks extend in tin irregular belt across the State, from ihe head waters of the Blue and Fancy, across the Republican and Solomon, and over the Kansas, between Turkey Creek and the Saline; thence south and southeasterly up the Smoky Hill and Gypsum, Hol- land and Turkey Creeks; along the northern slope of the divide, south of the Kansas, to the heads of Lyon and Diamond Creeks; sweeping thence westward across the Cottonwood and down the divide, south of that stream, to the Walnut and White Water. The gypsum beds vary in thickness from 0 to 50 feet, and crop out on the Blue, the Re- publican, and the Kansas, and on Turkey Creek; and on the divides between the Gypsum and Holland, and between Turkey Creek and the Cottonwood. In the same year, Dr. F. V. Hayden * referred the celebrated Pipe- stone quarry of noi'theastern Dakota, to the Triassic, and showed that the manufacture of it into pipes commenced by the Indians, at a quite recent date — probably within the last 50 or 100 3'ears. The pipestone is called Catlinite. The Triassic rocks of New Jersey f are included in a belt of country which has the Highland Range of mountains on its north- west side, and a line almost straight from Staten Island Sound, near Woodbridge, to Trenton, on its southeast; the Hudson river on the n:)rtheast, and the Delaware on the southwest. The length of the southern border line is 74 miles; that on the northwest is •^8 miles. These measurements are from the Delaware river to the State line. Its greatest breadth is on the Delaware, where it is over 30 miles across. From Mine mountain to the Raritan river, near the mouth of Lawrence Brook, its breadth is 19 miles. On the State line, from the Hudson river to Sutferns, it is 15 miles. The area embraced within these limits, excluding the ba^-s, is about 1500 square miles. Of this about 330 square miles are occupied by trap rock. It consists of red sandstone, and is fossiliferous, at Pompton, Boonton, Milford, Tumble Station, Belleville, Newark, Pluckamiu and other places. The ordinarj' way of computing the thickness of a rock formation is to take its dip, and also the breadth of country across which this dip is continued, and use them as two parts of a right-angled triangle for- getting the remaining parts, one of which is the perpendicular thick '•■ Am. Jour. Sci. and Arts, 2 ser., vol. xliii. t Geo. ofN. Jersey. 1868. 158 Cincinnati Society of Kataral History. ness of the rock. The red sandstoue has an average dip along the Delaware river, of at least 10 degrees, for 30 miles. This would give a thickness of 27,000 feet for this foi'mation, or more than five miles. If the mode of computation is accepted, the result must be received as correct. Those who think the strata were once horizontal, and that \\\ey have been thrown into their present inclined position at some la- ter period, adopt this conclusion without hesitation. Others who think the strata were deposited on a slope as we now find them, do not con- sider the above to be the true thickness. They suppose that the strata along the southeast border were first deposited on this northwest slope; and then that the upper edges were worn oflJ", and the material carried farther northwest to be again deposited, and form new strata upon the lower parts of those already deposited. Without any addition of ma- terial there would in this way be a multiplication of strata, all having the same dip. And such a process could go on until the formation had widened out to its present extent. The aqueous rocks of the new red sandstone period, in Nova Scotia and Prince Edward Island,* are principall}' coarse and soft red sand- stones, with a calcareous cement, which causes them to effervesce with acids, and contributes to the fertility of the soils formed from them. In the low part of the formation, there are conglomerates made up of well-worn pebbles of the harder and older rocks. The volcanic rocks of this period are of that character known to geologists as trap, and are quite analogous to the products of modern volcanoes; and, like them, consist principally of Augite, a dark green or blackish mineral, composed of silica, lime and magnesia, with iron as a coloring material. Various kinds of trap are distinguished, corresponding to the varieties of modern lavas. Cr3's- talline or basaltic trap is a black or dark green rock, of a fine crystal- line texture, and having on the large scale a strong tendency', to as- sume a rude columnar or basaltic structure. Amygdaloid or almond- cake trap is full of round or oval cavities or air bubbles, filled with light colored minerals introduced by water after the formation of the rock. This represents the vesicular or porous lava which forms the upijer surface of lava currents, just as the basalt trap represents the basaltiform lava which appears in their lower and more central parts. The only diff"erence is, that in the amygdaloid the cavities are filled up, while in the modern lavas they are empty. * In some old lavas, however, the cavities are already wholly or partially filled. A third * Aciulian Geology, 18G8. Mesozoic and Cccnozoic Geology and Paloiontolody. 159 kind of trap, veiy abundaut in Nova Scotia, is Tufa or Tuff, or vol- canic sandstone, a rock of earthy or sandy appearance, and of gray, greenish or brown color. It consists of fine volcanic dust, and scorise, popularly known as the ashes and cinders of A'olcanoes, cemented to- gether into a somewhat tough rock. Modern tufa, quite analogous to that of the trap, is very abundant in volcanic countries, and some- times sufficient!}' hard to be quarried as a stone. In the valley of the Salmon river, 4|^ miles eastward of the village of Truro, the eastern extremity of the New Red Sandstone is seen to rest unconformablj' on hard, reddish, brown sandstones and shales, belong- ing to the lower part of the Carboniferous system, and dipping N. 80 degrees, E. at an angle of 40 degrees. At this place the overlying forma- tion is nearly horizontal, and consists of soft and rather coarse, bright, red, silicious sandstones. Southward of Truro, at the distance of less than a mile, the horizontal soft red sandstone is seen in the banks of a brook, to run against hard, brownish grits and shales, dipping to the eastward at angles varj-ing from 45 to 50 degrees. Westward of this place, the red sandstones extend in a narrow band, about a mile in width, to the moutii of the Shubenacadie, ten miles distant. This band is bounded on the North by Cobequid Bay, and on the South by high- ly inclined sandstone, shale, and limestone of the Lower Carboniferous series. In the coast section, between Truro and the Shubenacadie, the red sandstone presents the same characters as at the formei- place, ex- cept that near the Shubenacadie, some of the beds, which, like most of the red sandstones of Truro, have a calcareous cement, show a tenden- cy to arrangement in large concretionary balls. West of the mouth of the Shubenacadie, the red sandstone ceases to form a continuous belt, but occurs in several patches, especiall_y at Salter's head, Barncote and Walton. At the latter place, it is seen to rest on the edges of sandstones and other rocks of the Lower Carboniferous system, aftbrding a very fine example of that unconformable superposition, which, in Geologv, proves the underlying formation to have been elevated and disturbed before the overlying beds were deposited upon it. Westward of Walton, the estuary of the Avon river and Minas basin make a very wide gap in the new red sandstone. On the western side of Minas basin, however, this formation attains its greatest width and grandest proportions. Blomidon is the eastern extremity of a long- hand of trappean rocks, forming an elevated ridge, named in the greater part of its length the "North iNIountains." This ridge is about 123 miles in length, including two insular portions at its western extre- mity, and does not exceed five miles in breadth, except near Cape 160 Cincinnati Society of Natural History. Blomidon, where a narrow promontory, terminating in Cape Split, ex- tends to the northward. The trap of the North Mountains presents to the Bay of Fuudj', a range of high cliffs, and is bounded on the inland side by soft red sandstones, which form a long valley separating the trappean rocks from another and more extensive hilly district, occupied principally by metamorphic slates and granite. The trap has protec- ted the softer sandstones from the waves and tides of the ba}', and jDrobably also from older denuding agents; and where it terminates, the shore at once recedes to the southward, forming the western side of the Minas basin, and affording a cross section of the North Mountains and the valley of Cornwallis. At Cape Blomidon, the cliff, which in some parts is 400 feet in height, is composed of red sandstone surmounted by trap. The sandstone is soft, arranged in beds of various degrees of coarseness, and is variegated by greenish bands and blotches. It contains veins of selenite and fib- rous gypsum, the latter usually parallel to the containing beds, but sometimes crossing them obliquely. It dips to the N. W. at an angle of 16 degrees. Resting on the sandstone, and appearing to dip with it to the N. W., is a thick bed of amygdaloidaltrap, varying in color from graj^ to dull red, but in general of grayish tints. It is full of cavities and fissures; and these, as well as its vesicles, are filled or coated with quartz, in different States, and with various zeolites, especiall}' heu- landite, analcime, natrolite, stilbite, and apophylite, often in large and beautiful masses of crystals. In its lower part there are some portions which are scarcely vesicular, and often appear to contain quartz sand like that of the subjacent sandstone. Above the beds ofamvgdaloid is a still thicker stratum of crystalline basaltic trap, having a rude columnar structure. The columnar trap of Blomidon, in consequence of its hardness and vertical joints, presents a perpendicular wall, extending along the top of the precipice. The amygdaloid beneath, being friable and much fissured, falls away in a slope from the base of this wall, and the sand- stone in some places forms a continuation of the slope, or is altogether concealed by the fallen fragments of trap. In other places, the sand- stone has been cut into a nearly vertical cliff', above which is a terrace of fragments of am^'gdaloid. Northward of Cape Blomidon, the northwesterly dips of the sand- stone and trap cause the base of the former to descend to the sea- level, the columnar trap, which here appears to be of increased thick- ness, still presenting a lofty cliff Southward of the (Jape, on the other hand, the amygdaloid and basalt thin out, until the red sandstones Mesozoic and Ccenozoic Geologi/ and Paloiontology. 161 occup}' the whole of the cliff". It thus appears that the trap at Blorai- don is a comformable bed, resting on the sandstone, exactly as in some places ou the opposite shore. The coast section between Blomidon and Horton, as seen near Pereau river and Bass creek, and at Starrs Point, Long Island and Bout Is- land, exhibits red sandstones, with northwest dips at angles of about 15 degrees, and precisely similar in mineral character to those of Blomidon, except that near Bass creek some of them contain layers of small pebbles of quartz, slate, granite and trap. The whole of these sand- stones underlie those of Blomidon, and resemble those which occupy' the long valley of Cornwallis and the Annapolis river, westward of this section. In this valley, the red sandstone, in consequence of its soft and friable nature, is rarely well exposed, but where observed, it has the same dip as on the coast. The comparatively high level of the sandstone, where it underlies the trap, shows that the present form of this valley is in great part due to denudation. Commencing at Truro, the New Red Sandstone extends with several interruptions, as far as Cape d'Or. It consists of a narrow strip ex- tending only about three miles from the bay, with occasional masses of trap. At Cape d'Or a great mass of trap I'ests on slightly in- clined red sandstone, and this again on disturbed carboniferous rocks, while, behind and from beneath these last, still older slates rise into mountain ridges. Cape d'Or forms a great salient mass standing out into the bay, and separated from the old slate hills behind, by a val- ley occupied by the red sandstone and carbojiferous shales. It dif- fers from most of the trappean masses in the arrangement of its com- ponent parts. The upper part of the cliff" consists of amygdaloid and tufa, often of a brownish color, while beneath is a more compact trap, showing a tendency to a columiiar structure. The small patches of New Red Sandstone on the New Brunswick side of the Bay of Fundy, with the deposits in Nova Scotia, show that the depression occupied by the Triassic Bay was of similar form (though somewhat enlarged probably) to that occupied by the present Bay of Fundy. [To BE Continued.] Note. — The species discussed in the first part of my paper on North American Limnaeidae, in the last number of this Journal, and of which the name was omitted, is the Bidimnea megasoma, Say. A. G-. W. 162 Cincinnati Society of Natural History. LIST OF THE COLEOPTEBA OBSERVED IN THE VICINITY OF CINCINNATI. By Charles Ddry. In presenting this list, a few remarks may be appropriate regarding the habits of some of the species mentioned, and the peculiar localities in which they were found. This vicinity, with its diversified surface and abundant vegetation, is very rich in insects of several orders, and particularly so in Coleoptera. The collections from which the list was taken, were mostly made within a radius of three or four miles around the city, including the Kentucky side of the Ohio river, and in no in- stance over ten miles away. In addition to the species enumerated, quite a number of new ones have been taken, and several new genera. Prof. J. M. Crawford, Mr. C. G. Siewers, Prof. A. G. Wether- by, Harold B. Wilson, and L. R. Freeman, have added many species to the list. To Dr. Geo. H. Horn, of Philadelphia, I am under great obligations for the determination of many species. To Mi". Henry Ulke, of Washington, D. C, I am also obliged. AvoNDALE, January 22, 1880. CICINDELID.^. Cicindfila 6-guttata, Fab. purpurea, Oliv. generosa, Dej. tranquebarica, Hb. repanda, Dej. euprascens, Lee. CARABID.^. Omophron robustum, Horn. americanum, Dej, tessellatuni, 8ay. Elaphrus ruscarius, Say. Notiophilus semistriatus, Say. confupu.s, Leo. hardyi, Putz. sibirfcus, Mots. Nebria pallipes, S ly. Calosoma externum. Say. scrutator, Fab. wilcoxii, Lee. sayii, Dej. calidum. Fab. Carabus limbatus. Say. vinctus, Web. Cychrus stcnostonius, Web. var. Lecontel, Dej. Cychrus elevatus, Fab. var. heros, Harr. andrevvsii, Harr. Pasiniacbus elongatus, Lee. punctulatu^, Hnld. Scarites substriatus, Hald. subterraneus, Fabr. Dyschirius h;einorrhoidalis, Dej. longulus, Lee. globulosus. Say. spha^ricollis, Say. erythrocerus, Lee. brevispinus, Lee. Ardistomis viiidis, Say. punctieollis, Putz. Clivina eorvlna, Putz. im press! frons, Lee. elongata. Rand. bipustulata, Fabr. Schizogenius lineolatus, Say. Brachyiius amerieanus, Lee. perplexus, Dej. i'uinans. Fab. cordieollis, Dej. Galerita janus, Fab. bicolor, Drury. Panagauis fusciatus, Say. Casnonia pennsylvauica, Linn. List of Coleoptera in the Vicinity of Cincinnati. 163 Leptotrachelus dor^alis, Fabr. Lachnophonis pubescoiis, Dej. Plochionus timidii*. Haiti. Loxopeza grandis, Hentz. atiivpiitri.«. Say. Lebia pulcbella, Dej. viriflis. Say. viritlipennis, Dej. Grnata, Siv. analis, D^j. fuscata, DVj. niarjrinella, Leo. Dianchomena abdominalis, Chd. scapiilaris, Dej. Apbeloo^enia fiiscnta, Lee. bivitata, Fab. Tefragoiioflerus fa^oiatus, Hakl. Dromius picpus, Dej. qnadriooHis, Leo. Blechrus pusio, Lee. Aphenes lucidula, Dej. sinuata, Say. Cymindis pilosa, Say. americana. Callida punctata, Lee. Coptodera aerata, Dej. Calathus oji-e^arius. Say. Platyniis caudatiis, Lee. hypolithus, Say. tenebrieo.su.«. Gemm. marofinatus, Chd. sinnatus, Dej. viridis, Lee. melanarius, Dej. punetiformis, Say. crenisti iatiis, Lee. riibiipes, Zimni. excavatiip, Dej. ferreiis, Hald. rnfieoniis, Lee. octopunetatus, Fabr. placid us, Say. Olisthopus parmatus, Say. Loxandrus minor, Chd. Evarthrus siximpressus, Lee. americanus, Dej. podalis, Lee. obsoletus, Say. Pterostichus rostratus, Newm. honestus, Say. lachrymosus, Newra. eoraciuus, Newm. stygicus. Say. pernmndus, Say. sayii, Brull. lucublandus, Say. Myas coracinus. Say. Amara avida, Say. exarata, Dej. Amara furtiva, Say. augustata, Say. inipuncticollis, Say. fallax, Lee. polita, Lfc. interstiiialis, Dej. cupreolata, Putz, Diesel us dejeanii, Dej. purpuratus, Bon. seulptilis. Say. furvns, Say. ovalis, Lee. elongatus, Dej. teter, Bon. reflexus, Lee. politus, Dej. Anoraoglossus emarginatus, Say. pusilius, Say. Chlaenius rutipes, Dej. lithophiliis. Say. serieeus, Forster. prasinus, Dej. pennsylvanicus, Say. solilariu*. Say, tricolor, Dej. tomeijtosus, Say. Atranus pubescens, Dej. Oodes 14-striatus, Clid. Geopinus incrassatus, Dej. Cratacanthus dubius, Beauv. Agonoderus lineola, Fabr. partiarius. Say. indistinetus, Dej. Anisodactylus rusticus, Dej. carbonarius, Say. harrisii, Lee. agrieola, Say. di.^eoideus, Dej. baitimorensis, Say. serieeus, Harr. Amphasia interstitialis, Say. Anisotareis nitidipennis, Lee. Bradycellus diehrous, Dej. vulpeeulus, Say. badiipennis, Hald. rupestris, Say. parallelus, Chd. Selenopiiorns gagatina, Dej. conjunctus, Say. Harpalus caliginosus, Fab. faun us, Say. pennsylvanicus, Dej. perbivagus. Say. nitidulus, Chd, Stenolophus oehropezus, Say. Patrobus longicornis, Say. Bembidium punetatostriatum, Say. paludosum, Sturm. inaecxuale, Say. 164 Cincinnati Society of Natural History. Bembidium nitiduliim, Dej. americanuni, Dej. chalceum, Dej. picipes, Kirby. cordatum, Lee. dorsale, Sny. patruele, Dej. variegatum, Sny. inteimedius, Kirby. versicolor, Lac. pictum, Lee. affiiie, Say. quadritnaculatum, Linn, lajvigatiim, Siiy. Tachys scitnlns, Lee. nanus, Gyll. flavicanda, Say. incuivus, Say. tripunctatu*, Say. Pericompsus ephippiatus, Say. HALIPLIDv^. Haliplus punctata, Aube. ruticollis, Dej. Cnemidotus ]2-punctatus, Say. edentulus, Lee. DTTISCID.^. Hydrovatus cuspidatus, Germ. Hydropoius acaroides, Lee. turbidus, Lee. nubilus, Lee. laeiistrus, Say. afRnus, Say. consimilis, Lee. conclnuus, Lee. Hydrocanthus irieolor, Say. Cybister fimbriolatus, Say. Laecophilus maculosus, Germ. faseiatus, Aube. proximus. Say. Aeilus seniij^ulcatus, Aube. fraternus, Harr. Thermoiiectes basilaria, Harr. Hvdaticus bimarginatus, Say. Dytiscus marglnicollis, Lee. cordieri, Aube. liybridus, Aube. fapciventris, Say. Ilibius bijjuttulus, Germ. Coptotomus interrogatus, Fab. Copelatus glypliiius, Say. Gaurodytes t;«ni.)latus, Harr. semivittatus, Lee. stagninus, Say. GYRINID^^. Dineutes discolor, Aube. Dineutes assimilis, Aube. Gyrinus lugens, Lee. analis, Saj'. HYDROPHILID.^. Helopborus lineatus, Say. Hydropbilus ovatus, H. & G. triangularis, Say. Tropisternus ninibatus, Say. striolatus, Lee. glaber, Hbst. mixtus, Lee. Berosus pantlierinus, Lee. peregriijus, Hbst. striaius, Say. Laecobius agilis, Kand. Philhydrus nebulosus, Say. ocraceus. Mel'*. maculicollis, Muls. Hydroblus suhcupreus, Say. Cercyon pra3textum, Say. TRICHOPTERYGID^^. Triehopteryx baldemanni, Lee. STAPH YLINID^^. Falagria cingulata, Lee. bilobata, Say. Hamalota triiuaculata, Er. lividipennis, Mann. Alaeochara lata, Grav. fuscipes, Fab. Coproporus ventrieulus, Grav. Taetiinus furaipennis. Say. fiinbriatus, Grav limbatus, Mels. canadensis, Horn. swarizii, Horn. Tacyporus joeosus, Say brunneus, Fabr nanus, Er. scitulus. ebrysomelinus, Linn. maculipennis, Lee. Conosoma crassum, Grav. basale, Er. seripluni, Horn. liltoreuni, Linn. Boletobius niger, Grav. cinciicollis. Say. cinctus, Grav. trinotatus. intrusus, Horn. dimidiatus, Er. Bryoporus tlavipos, Lee. Myeetoporus Incidulus, Lee. Aeylopborus tlavieoUis, Seh. Lht of Coleoptera in the Vicinity of Cincinnati. 165 Quedius fulj^itlus, Fabr. capiK'liinus, Grav. molochiiius, Grav. subliiubatiis, Mots. peri'griiius, Grav. Creophilus villu:', Say, Cnesinus strigicollis, Lee. ANTHRIBID^. Tropideres rectus, Lee. biniatnilata, Oliv. Eurymycter fasciatiK, Oliv. Hoimi^cus saltaior, I>fC. Euspliyrus vvalsliii, L^-c. Toxotropis pusillus, Lee. Piczoi'oiynus mixtus, Lee. dispar, Gyll. Anthribns eonnitus, Say. Ciatoparus lu'iatu.*, Fab. Brachytarsus varieijatus, Say. touieiitosus, Si}\ alternatu^, Say, Chorajfus sayii, Lee, AuieDeerus faseiciilatu«, DeG. Aiitliribus eoriiutus, Say. In making up the list tlie following species were omitterl: CARABID^^. Xestonotus lugubris. Dej. Anisotarsus pieeus, Lte. terniiiialis, Say. Evarthrus sijiillatus, Say. Pterosticbus mutus, Say. STAPHYLINID^^. Erchomus brevis. HETEROCERID^^. Heterocerus cuuieulus, Kies. CHRYSOMELID.E, Oedionyebi.« qnereata. Fab, Blepharida rbois, Forst. OTIORHYNCHID.^. Aphrastes tteiiiatus, Say». CiClNDELA cuprascens, Lee. — On a low, sandy flat, on the Kentuekj' side of the Ohio river, this species occurs ; it swarms by thousands. I have not observed it in any other locality. June to September. Omophron robustum, Horn. — The sloping banks of Mill Creek produce this species. By splashing them with water, the Omophron come out from where they are concealed and go rushing up the banks, and are easily captured. Of 3G5 speci- mens taken at this locality, on July 10th, 180 were tessellatum, 147 were robustum and 38 were americanum. Cychrus andrewsii, Harr. — This species was found in a ravine on the edge of a thick woods ; they were concealed in a rotton log. By choi)])ing the log to i)ieces, over 20 specimens were taken out of it. July 24tli. LeptoTRACHELXJS dorsalis, Dej. — In beating some weeds on the Miami bottom, near " Red Bank," liundreds of this species were taken. The color varied from black to pale buff". May 22. COPTODERA ajrata, Dej. — Al)uiidant under the loose bark of dead beech trees. A very active little insect and difbcult to capture. June, July and August. List of Coleoptera in the Vicinity of Cincinnati. Ill Megaloi'S caelutus, Grav. — This woiulcrful little insect was taken on small beech logs. Specimens by Mr. Crawford and myself. April 2d to August 19th. Bleciirus pusio, Lee. — In the crevices of some old fence rails, many specimens of this species were taken. March. OxYPORUS major, Grav. and Stygicus, Say. — In fungus. They were cutting bur- rows through the tender parts. In no instance were any taken on old or decaying fungus. August 19th to September 29th. E.YMBUS ulkei, Cr. — Taken under bark on old beech logs. September to October. Necrophilus subterraneus, Dahl. — This species was taken on decaying fungus ; it was quite rare. September 27th. Grynocharis 4l-ineata, Mels. — Found under beech bark. July. Ampuicrossds eiliatus, Oliv. ; and Pallodes silaceus, Er. — On freshly cut stumps of the sugar maple. These two species congregate in clusters early in March. LiODES polita, Lee. — From under loose bark, on a beech log, I took 40 of this species — they were in a cluster. October 13th. Megalodacne ulkei, Cr. — In only one locality has this species been observed, on tlie Kentucky side of the river, and though I have diligently hunted like sit- uations on the Ohio side, I have failed to find a single specimen. July 5Lh to October 30th. Eudesma undulata, Mels. — One specimen taken by Mr. Siewers, from under loose bark of Sycamore. July. BoTHRlDERES exaratus, Mels. — From under the bark of a dead elm tree was taken about 150 of this species, and though there were many other dead elms in the vicinity, no more specimens were found. July, August. HiSTER gracilis, Lee. — Found under elm bark. August. Chalcophora campestris. Say. — The dead beech trees in this vicinity are riddled by tliis species. They have also been taken from sycamore and maple. July to August. BuPRESTis rufipes, Oliv. — Beech and sycamore. August. Anthaxia cyanella, Gory. — From the leaves of a small haw bush, 118 specimens were beaten. June 4th. PODABRUS fayi, Lee. — Not abundant; beaten from wild grape. June 12th. PliYLLOB^ENOS dislocatus. Say. — Specimens of this species were taken running along the bark of dead beech trees. June 21st. NOTHODES dubitans, Lee. — Abundant on weeds in river bottom. May 15 to June 6. Cregya oculatii ani mixta. — Bjaten from osage orange. July. EuCRADA huraeralis, Mels. — Found running up and down the trunks of dead beech trees. May 20th. 178 Cincinnati Society of Natural History. Parandra polita, Say. — Several specimens dug out of dead beech trees by Mr. SLewers and myself. Phyton pallidum, Say. — Beaten from osage orange ; a very active species. June. Dryobius sexfasciatus, Say. — This species congregates under loose bark, as many as 5 or 6 having been taken from under one piece. July. Neoclytus nitidus, Horn. — One specimen taken by Mr. Siewers, June 10th. Cyrtinus pygraa3us, Hald. — By beating wild grape vines when in blossom, this beautiful little longicorn was secured. June. Crepidodera scabricula, Cr. — Abundant on ash sprouts. May 11th. CORPHYRA lugubris. Say; terminalis, Say; eollaris. Say; canaliculata, Lee; and impressa. Say. — Abundant on blossoms of buckeye and white thorn. April 25th to May 15th. CORPHYRA fulvipes, Newm, and Labiata, Say. — Abundant on weeds in river bot- toms. May 22. Hypophlcecs, n. sp. — Taken from under the bark of dead osage orange limbs. August. ErrcHiETES echidna, Lee. — Taken on dead beech trees. They were walking along crevices in the bark, into which they were poking their long and slender snouts. When taken hold of they cling to the bark with the greatest tenacity. June 21st. Platypus compositus. Say. — Taken from under the bark of buckeye logs. July. PlEZOCORYNTJS dispar and mixta. — Abundant on bark of dead beech. June and July. HORMISCUS saltator Lee; and Eusphyrus walshii, Lee. — Taken from under the bark of dead osage orange limbs. §l||]ef«rimWl%®m#ttl''^ ^^^^^^^ la Jp ^V M^ lb. # \\^^' V Ic im" 4H. 2c ^ Kre&s LrTHOouPHiNQ Company CiNcmM PLA TE XI, PAGE. Pterotockinus bifurcatus. Natural size. Prof. Wetherby's collection, . 136 Fig. la. Upper view. 16. Basal view. \c. Side view. Pterotocrinus acutus. Natural size. Prof. Wetherby's collection, . 134 Fig. 2a. Upper view. 26. Basal view. 2c. Side view. Pterotocrinus spatulatus. Natural size. Prof. Wetherby's collection, . 137 Fig. 3a. Upper view. 36. Basal view. 3c. Side view. FOKBESIOCRINUS PARVUS. Two diameters. Prof. Wetherby's collection, . 138 Fig. 4a. Azygos. 46. Opposite side. PLATE XII. Atactopora multigranosa 122 Fig. 1. View of specimen grown ui)on an Orthoceras. Natural size. E. O. Ulrich's collection, la. Portion of the surface of same, enlarged to 8 diameters. Atactopora maculata, 121 Fig. 2. Portion of a large specimen. Natural size, E. O. Ulrich's collec- tion. 2a. Portion of the surface of same, enlarged to 8 diameters. 26. A transverse section, showing the pseudo-septa to be better de- veloped here than at the surface. Magnified to 5 diameters. 2c. A longitudinal section, cutting through two of the maculse. En- larged to 5 diameters. Atactopora hiesuta, 120 Fig. 3. A small example attached to an Endoceras. Natural size. E. O. Ulrich's collection. 3a. Portion of the surface enlarged to 8 diameters. 36. A transverse section enlarged to 5 diameters. Atactopora mtjndula, 123 Fig. 4. A very fine specimen attached to Chcetetes mammulatns. Natural size. E. O. Ulrich's collection. 4a. A portion of the surface of same, enlarged to 8 diameters. Atactopora tenella, 123 Fig. 5. A portion of a large specimen that is attached to a frond of C. mammulatus. Natural size. E. O. Ulrich's collection. 5a. Portion of same enlarged to 8 diameters, showing distinctly the pseudo-septa. Atactopora subramosa, 124 Fig. 6. An example showing the sub-ramose character of the species. Natural size. E. O. Ulrich's collection. 6a. Portion of the surface of same, enlarged to 8 diameters. This fig- ure shows a number of the cell-mouths much contracted by accretions to the margins ; and the great irregularity of the cells as presented at the surface. PAGE. 66 A tangential section of the same, enlarged to 5 diameters. 6c. Longitudinal section of the same, enlarged to 5 diameters and showing the periodically contracted tubes, much as in Steno- 125 pora. ATACTOPORA SEPTOSA, . • . • • /, ,; T TJ 1 f „ QLHnnpr Fig 7. A specimen of the natural size, collected by Mr. J. Ealston Slvinner. 7a. Portion of the surface of same, enlarged to 8 diameters 7b. A small part of another specimen, enlarged to 8 diameters. This figure shows the pseudo-septa as usually developed at the surface. . , ^.^ k 7c. Longitudinal section showing internal characters. Magnified to & diameters. ^^26 STELLIPORA LIMITARIS, XT '. i' • ' V O TTlrioh's Fig.. 8. A specimen with the usual characters. Natural size. E.O.LUrichs collection. 8a An enlargement to 8 diameters of a portion of the surface of same showing depressed macula, the elevated calice margins, and cellulose interstial spaces. , , n 8b Longitudinal section taken from another example, enlarged to 5 ■ diameters. The figure represents only one half of the entire section of the branch. 8c. A tangential section. ^^^ CH^TETES GRANTJLIFEKTIS x^' xt ^ i ^o V Fig. 9. View of an example found at Frankfort, Ky. Natural size. E. O. Ulrich's collection. 9a An enlargement to 8 diameters of a portion of the surface. This figure is taken from a specimen, with comparatively few spinular processes. 9b. A longitudinal section showing internal structure. CH^TETES IRREGULARIS, • • • ■■',.■ v O TTIriph's Fig. 10. A strongly nodulated specimen. Natural size. E. O. Ulrich s collection. 10a A portion of the surface magnified to 8 diameters. 106. A section cutting the tubes both longitudinally and transversely. Enlarged to 5 diameters. CH^TETES SUBGLOBOSUS XT 1 • Fie 11 A representative specimen of this species. Natural size. lla A section cutting tubes transversely. Enlarged to 6 diameters. 116. Half of a longitudinal section. Enlarged to 2}4 diameters. Ch.s;tetes elegans ^ A tti • i> i Fig. 12. A nearly complete specimen. Natural size. E. O. Ulrich's col- lection. 12a. A i)ortion of the surface of same, enlarged to 8 diameters. EXPLANATION OF WOODCUTS ON PAGE 14. Fitrs 1 and 2 represent lateral and dorsal views of the best specimen found. In freei^igthis specimen from its matrix, the frontal prolongation was unfortunately, separated from the rest of the cephalic shield, and lost. Its position, however is sut- ficiently indicated by the fracture. The snout has been observed (,n place on six otTer, Uiough less perfect individuals, makin. it an easy matter to restore the same on the specimen figured. Fig. 3. An outline view of the under side of the movable cheeks and snout, show- ing the position and course of the frontal suture. 129 129 130 YOL.U. llif immml rf 1% ®Btf:ttKBubmmi i)feifeirio PlHfelZ. lOb 9b. W^IM^: 9a. lib. Ua. ■ ^ii ■ ■ ■> THE JOURNAL ■iili lim OF MiiL HUM, VOL. II. CINCINNATI, JANUARY, 1880. No. 4. DESCBIPTIONS OF SOME NEW TINE IN A. WITH NOTES ON A FEW OLD SPECIES. By V. T. Chambers. In the past tn^o jears I have done but little in Entomology, that little having been done mainly in the study of larval histoiy and hab- its; and the descriptions and notes published during that time having been the result of previous stud}', so far as they relate to the mature insects. The following notes comprise descriptions of new species which have been received from correspondents during the period men- tioned, together with a few notes on species heretofore described. The Texas specimens are from Mr. Belfrages. Anesychia texanella, n. sp. Described from two specimens, one of which is much more distincth' marked than the other. To the unaided eye the}' appear pale, grayish white; under a lens, sparsely dusted with fuscus scales, an oblique fus- cus spot or streak on the disc (on forewings) just before the middle, and a more indistinct streak or spot about halfway between the one just mentioned and the base of the wing; and another at the end of the cell. Cilia pale stramineous, flecked with fuscus. The fuscus dust- 180 Cincinnati Society of Natural History. ing is more distinct on the legs and abdomen, and the anterior surface of the tarsi is distinctly fuscus. Antennae, yellowish, not at all pectin- ate or pubescent. Minute maxillar}^ palpi are perceptible, tongue scaled. Though perhaps not a typical Antsychia, I see no reason to separate it from that genus. Al. ex., one inch. Texas. Hyponomedta texanella, n. sp. At first glance I supposed this to be H. longimqculella, Cham., but closer examination convinces me that it is distinct. Both species differ from our other species of this genus in having man}- of the spots on the wings oblong. White: Basal half of the second joint of the palpi, blackish; with no annulations on the third joint. Basal joint of antennte with a black spot on its tip above; stalk, white at the base, gradually becoming more fuscus towards the tip, the fusciis part marked with a faint, whitish spot on each joint. There are a black spot on the vertex, four on top of the thorax, and one behind each eye; of the four on top, two are on the anterior margin, and one on each side of the apex. Base of costal margin of forewings, black, extending along the extreme costa, and sending a branch within it; a small black spot on the base of the fold; around the apex a row of circular black spots, and fourteen or fifteen others scattered over each wing, those along the costal margin and disc being much more elongate than those in the dorsal part of the wing, three spots lying in a line along the middle being more elongate than the others. Abdomen and legs, j^ellow, the tarsi marked with fus- cus spots on the anterior surfaces of the first two pair. Al. ex., 15-16th inch, Texas, One of the specimens has three of the eggs adhering to the apex of the abdomen. They are ver^^ pretty, being elongate ovate, iridescent, and ornamented with longitudinal ridges of beads. Harpalyoe albeli.a, Cham. I wish to amend the generic diagnosis by adding that the antenna' are stout, and microscopically pubescent, and the tongue naked. I have elsewhere called attention to the fact that the generic name is already preoccupied, and I therefore change it to Tde. In this species the costal margin is yellow ; and the amount of fuscus dusting on the white forewings varies, though there is never much of it, and occasionallv it is aggregated into small spots on the disc, and these are sometimes inclosed in a yellow annulus. and the entire under surface and legs are stained vellowish. Descriptions of some JSFew Tineina. 181 Plutelopteka, gen. iiov. This species belongs to the Plutellid^. Tlie form of the wings and the neuratioh resembles that of Plutella. I possess but a single specimen in good condition. Forevvings: These differ from those of Plutella oruciferarum onl}- by having two branches of the discal vein continued through the cell in which the}' unite, forming an independent, elongate, triangular cell, beside the secondary cell seen in Plutella. Hindwings: These show no secondary cell, the marginal veins not being continued through the cell. The number of marginal veins is the same as in P. cruciferarum^ ,but thej' differ somewhat from that species in position. Vertex, roughened; face, smooth, basal fintenual joint,with depending hair-like scales; antennae, slender; tongue, long, naked; no maxilary palpi; labial palpi, porrected long enough to reach the base of the an- tennae; second joint, clavate, and joints of about equal length. Pldteloptera ochrella, n. sp. Basal joint of antenna, white, stained with fuscus; stalk, white, each joint having a black dot above, and one on each side. Face and palpi, brown, sprinkled with white scales. Head, thorax, and forewings, yel- lowish ochreous, with (on the forewings) a small brown spot about the middle of the fold. Hindwings, pale lead color. Abdomen and legs, brown, dusted with white. Al. ex.. 5 8th inch. Texas. GELECHIA. G. pinifoliella, n. sp. Palpi, simple; hindwings, excised beneath the tip. Head, white, flecked with scales of the general hue of the insect, which may be called a brownish j^ellow, though it is difficult to define its exact hue. Palpi, white; the second joint longer than the third, brownish 3'ellow, flecked with fuscus scales on the outer side; third joint, white, with a brownish 3'ellow aunulus about its middle, and another near its tip. Antennae, white, each joint crossed by a brownish band. Thorax and forewings of the general hue above mentioned, flecked with fuscus scales. On the forewings are three white fascia, placed about the basal fourth, middle, and apical fourth of the wing-length; the apex densely dusted with fuscus scales on a white ground; and the dorsal 182 Cincinnati Society of Natural History. raavgiu sparsel}' flecked with brown;' the^ fascia also are more or less margined with brown scales, and the third fascia is sometimes inter- rupted in the middle; and the fuscus scales, which margin the first and second fascia (especially' near the fold along the second fascia), form minute tufts of raised scales. Cilia grayish, with black scales, tipped with white, interspersed among them. Under side of the wing, brown- ish. Hindwings, pale grayish, with light cilia. Abdomen, brown above, whitish toward the apex beneath. Al. ex., |th inch. This description has, at the request of Prof. Cojnstock, been fur- nished to him for the forthcoming volume of the Report of the U. S. Agricultural Department. The species was received for identification from Prof. Comstock, who informs me that the larva mines the leaves of a species of pine tree (Abies sp.}. Prof. C. will no doubt furnish more complete details of its life history. Mr. Stainton, in a letter, states that a Gelechia mining pine leaves is new to him, but that the ornamentation of this species, as briefly de- scribed in my letter, suggests a superficial resemblance to (JEcophora angustella, Hiib. I can not, however, refer this species to (Ecophora for many reasons. Its proper place is in Gelechia, and although the ground color is quite diff'erent, yet the fascia and small raised tufts recall the European G. dodecella, which is also a pine feeding species. G. OBLIQUIFASCIELLA, n. Sp. Palpi, simple, brown on the outer surface, white within, with a white annulus on the apex of the second joint, one on the base ot the third, and another before the top of the third. Head, sordid or grayish white, iridescent. Antennae, sordid, pale brownish. Thorax and fore\yings, brown, the dorsal margin of the wings white; an oblique white fascia crosses the wings before the basal fourth, passing into thcAvhite of the dorsal margin. Abdomen, brownish, with the annal tuft sordid 3'el- lowish. Legs, yellowish, marked with brown on their anterior surfaces. Al. ex., 9-16th inch. Texas. (t. quadrimaculella, Cham. In the description the ground color is said to be brown; but there is great variation in the depih of the color, some specimens being rather of a dark ashen hue than brown. G. jjravinominelln, Cham., though having the spots nearly as in this species darker, and has a large brush on the second joint of the palpi, whilst this species has the palpi slender, and without a brush. This also has the third palpal joint as long as the second, and of a paler hue. Descriptions of some JVe«" Tineina. 183 G. UIMINIMACULELLA, U. Sp. A little larger than G. pseiidacaciella^C\i3i\n.^w\x\c\\ it greatlj' resem- bles, and of which it may prove to be a variety. It is a little darker color, and lacks the white dusting in the apical part of the wing, and it has a small oclireous spot on each side of the apex of the thorax, which is wanting in pseudacaciella. Otherwise, the species resemble closely being brown, with a faint purplish hue, more or less distinctly streaked longitudinally, with ochreous within the costal margin. Texas. G. ROSEOSUFFUSELLA, Clem. Three California specimens, for which I am indebted to Mr. Belirens, and which I refer to this species, have the fascia reddish brown, the white part of the wings a little dusted with brown, and no trace of the roseate tinge. ANARSIA. A. (?) BELFRAGESELLA, U. Sp. Perhaps more properl}^ referred to Gelechia. I refer it to Anai^sia^ mainly because of the structure of the palpi, which resembles those of A. lineatella, Zell. Pale gray. Outer surface of the second joint of palpi and a ring be- fore the tip of the third joint, brown. Antennae, with the annulations alternateh' brown and gra^-. There are two or three small brownish spots on top of the thorax, a short brown streak from the base of the costa of the forewings, and a small brown spot beneath the fold, near the base, a small tuft of raised brown scales within the dorsal margin, before the middle; a small diffused brownish spot about the middle of the wing, and two small raised tufts at about the apical third of the wing (one just within each margin), with two narrow white streaks pass- ing backwards between them. The dorsal margin behind the tuft is bordered bj'a narrow white streak, which becomes confluent at the anal angle with a narrow oblique white fascia, which begins on the costal margin opposite to the tuft. There is a white dash near the apex be- hind the confluence of the white streaks; behind the oblique white fascia is an oblique orange-colored costal streak, and behind this again are two white streaks perpendicular to the costa. Cilia, brown, with a whitish hinder marginal line. Abdomen and legs, gra^', blotched with brown spots. Al. ex., 7-l6th inch. Texas. 184 Cincinnati Society of Natural History. NOTHRIS. N. BiMACDLELLA, Cham. Originally described from Colorado, since received from Texas. N. ciTRiFOLiELLA, Cham. It is possible that this species may be already known in Europe, but 1 have not been able to find any account of it. If known, then it ought to be found in Mr. Stainton's "Tineina of Southern Europe," a work which is probably not to be found in this country — at least it is not found in some of the best libraries, as, e. g., at Washington, Cambridge and Boston. It is important that it should be known in this country, and I therefore describe it as a new species ; since, if it is already known, the accounts of it are not accessible in this country. Yet since the larva feeds upon the leaves and leaf buds of the orange, the species can not be indigenous, if the orange is its only food plant, and as 3'et none other is known ; it will, therelore, probably be found in Southern Europe, if it has not been already. I have received it from Prof. Com- stock of the U. S. Agricultural Department for identification and de- scription in the forthcoming volume of the report of that department, from which this account is taken. Prof. Comstock informs me that the young larvffi feed on the leaf buds, and the older ones on the leaves which they fold, and within which fold they live and pupate, and that it is committing serious ravages in the orange groves of Florida. But he will no doubt furnish fuller and more adequate in- formation in the Report above referred to. A letter from Mr, Stainton (received since the foregoing was written) informs me that a Nothris feeding on leaf buds of orange, is entirely new to him, but that this species, from my brief notes of it in a letter to him, is quite in the style of AT. Durd- hamella^ Sta. I know Durdhamella only l)y the brief description in Ins. Brit., v. 3, and the resemblance of this species to it had already occurred to me; but the statement in Mr. Stainton's des^cription of Durdhamella, " beyond the middle is a cloudy, fuscus fiiscia, and the apex of the hind margin is dark fuscus," does not apply to this spe- cies, and there are also other less striking difl'erences, Durdhamella "has occured on Durdham Downs, near Bristol, and at Teignmouth, in England" (loc. cit.), where it is not likely that it fed on orange leaves, and if this species is the same, it must have other food plants. Abdomen, ochreous, dusted with fuscus. Legs, ochreous, stained with fuscus on their anterior surfaces. Al. e.*;., ll-16th inch. Descriptions of some iVew Tineina, 185 The imago is oclireous gray (under a lens, ochreous, dusted witli fuscus). Outer surface of the second joint of the palpi, brown, except its anterior margin, which is pale ochreous, the third joint is acieular, longer than the second, and springs from the middle of the anterior margin of the tuft of the second joint; it is pale ochreous, tipped with fuscus. Antennae, minutel}' pectinated and microscopically pubescent, ochreous, dotted with fuscus on the upper surface, and with the upper surface of the basal joint fuscus. On the disc of the forewings, at about the basal fourth, is a short, obscure, oblique, reddish fuscus streak, and behind it is a small brown discal spot, with another like it placed opposite to it, touching the fold; further back on the disc, are two similar brown spots; and a little behind them, on the dorsal margin, at the end of the fold, is a much larger spot or patch of the same color. The wing behind tlie discal nervure, is paler than it is before it, and shows indistinctly' a wav^' transverse fuscus streak; and there are five circular black spots around the apical margin. Cilia, pale ochreous. Hindwings, pale grayish fuscus, scarcely excised beneath the tip. CORISCIUM QUINQUESTRIGELLA, Cham. Slight differences in the markings of numerous specimens make it possible that two species are included under this name, but 1 think there is only one. COLEOPHORA BISTRIGELLA, Cham. I have elsewhere suggested that C. basistrigella, Cham., mighthethe same species. I am now, however, convinced that they are distinct species. CoLEOPHORA INORNATELLA, Cham. Palpi and antennai, simple and shorter than usual in C'oleophora. Entire insect pale, sordid or leaden, ochreous, except the middle part of the forewings, which is white from the base nearl}- to the apex. Al. ex., 3-8th inch. Texas. Laverna sabalella, n. sp. This species, like two others previousl}' mentioned in this paper, was received from Prof. Comstock, and described by me for the forthcoming- volume of the U. S. Agricultural Report, in which further particulars of its life history will be found. Prof. Comstock informs me that the 186 CinGlnnati Society of Natural History. larva feeds on the under side of the leaves of the Palmetto (Sabal sp?) in Florida. It forms of its frass, or excrement, large tubes or gal- leries under which it lives. The frass forms masses of considerable size. I have but a single specimen, and that is slightly worn. The palpi are rather long, slender and acuminate, somewhat like those of L. gleditschiaiella, Cham., and the wings are elongate and narrower than in gleditschiaiella. Ver}^ pale ochreous yellow, or perhaps rather stramineous; outer surface of the second joint of the palpi, brown. There is a small brown spot on the fold near the hind margin of the forewings, and a larger one at the end of the disc nearer to the dorsal than the costal margin. Al. ex., 5-8th of an inch. CEnoe hybromella, Cham. This species is very difficult as to its location. The neuration of the wings places it among the Elachistidie, whilst its trophi seem to all}' ,it to Tinea. Its ornamentation is so similar to that of Tinea tapet- zella that it looks like a pigm}'^ tapetzella. tEaea quadricustatella, n. sp. Nearer to A. ostryceella, Cham., than to A. purpuriella, Cham. The three species differ slightly in the neuration of the wings; indeed, in this species, that of the hindwiugs (except the median, which is fur- cate on the hind margin), is almost obsolete, and this species also has the palpi a little longer and more slender than the others. A charac- ter of all three is the prominent, obtusely pointed forehead. This spe- cies is darker gray than ostrya'ella, not so brown as j^»rp«r»eZZo, and the size is that of ostryceella, and smaller than purpicriella. There are four small raised tufts on each forewing, placed like those of piirpur- iella. Anterior surface of legs, dark brownish gra}'. Texas. -ZEtia, gen. no v. Forewings, lanceolate; hindwings, linear. In the forewings the costal vein attains the margin before the middle; the subcostal subdi- vides into foui- branches, the first of which is before the middle, the other three nearer together, and the last one attaining the margin just before the apex. Cell, unclosed? (or closed by a very indistinct discal vein); an independent discal branch goes to the apex. In the apical part of the wing the median subdivides into tlic equidistant branches; subniedian distinct, simple. In the hindwings the cell is unclosed; Descriptions of some yeir Tineina. 187 the costal is short aud indistinct; subcostal without branches goes straight to the margin in the apical part of the wing. Median (or submedian?) distinct, attaining the hind margin about midway its length; an indistinct fold (the median vein?) along the middle of the wing. Head, smooth; vertex, arched; face, full, but less so than in the ge- nus Aeaea. Antennfe, slender, subpectinate toward the apex, more than half as long as the wings; tongue, long, naked; no maxillary palpi; labial palpi, drooping (probably recurved in the living insect); divergents, slender, joints of about equal size; ocelli, none; eyes, moderate. A. BIPDNCTELLA, n. Sp. Yellowish oclircous, with a small blackish spot on the fold before the middle; another beliiud the middle beneath the fold, with one nearly opposite to it on the disc, and another at the end of the cell. Al. ex., 8-8th inch. Texas. Elachista bickisiatella, u. sp. Next to the' Gelechidce, the Elachistidoe appear to be most numer- ous, both in species aud individuals among the Texan Tineina, judg- ing from the collections that I have received from that region. Many of the species, however, can not be placed in ElachisfAi.^ though closely allied to it (such as Eripliia., Aeaea, etc.), whilst some that I have re- ferred to, Elachista, will, perhaps, be removed from it. Dr. Clemens describes as E^ orichalcella, a species which Mr. Stainton "imagines to be quite distinct from *' Elachista. Unfortunately it was de- scribed very brie% from a single specimen which does not seem to be now extant. From Dr. Clemens' description, I supposed it might pos- sibly' be Eriphia concolorella, Cham., but Dr. Clemens' account of the neuration does not agree with that of^ Eriphia, and orichalcella is de- scribed as of a metallic cupreous color, and Eriphia concolorella is of a dark bronzy brown. Some of the species which approach Elachista closely, have raised tufts on their wings, and this (bicristatella) is one of them. Palpi, simple, slender, drooping; antenuje, slender, more than half as long as the forewings. Insect, dark gra3'ish brown. About the middle of the costal margin of the forewings is a small white spot, which almost touches an opposite larger dorsal white spot, which is margined behind b}- a tuft of raised scales; aud just before the cilia is 188 Cmcinnati Society of Natural History. a similar pair of white spots, tiie dorsal one being likewise margined behind by a raised tuft. There are also some white scales in the dor- sal cilia. Posterior tarsi, annulate with white. Al. ex., ^ inch. Texas. EuLYONETiA, gen, nov. I am greatly puzzled as to the proper location of the insect which T make the type of this genus. There is nothing in the general appear- ance of the insect which suggests .any close resemblance to Lyonetia; it rather, in fact, seems to belong to the Elaclnstida'. The neuration, however, allies it to Lyonetia. Forewings, linear lanceolate; sub- median, furcate at base ; costal ^.ttainiug the margin about the middle; cell, long and narrow; the subcostal subdivides into four branches, the first arising before the middle, and the last going to the apex, with a branch to the dorsal margin, and the first farther removed from the others than they are from each other; discal vein, oblique, with a branch to the dorsal margin; median, unbranched, attaining the mar- gin behind the end.of the cell. Hindwings, linear; cell, unclosed; cos- tal vein, very long; median, furcate; fold, indicated; submedian, verj- distinct. In the single specimen before me the vertex is denuded; face, smooth; palpi like those of some species of Elachista, the third joint shorter than the second, slightly drooping in the dead insect. No maxillary palpi; tongue of moderate length, scaled. Face slightly retreating (less so than in Lithocolletis). Ocelli, none. Basal joint of antennae, somewhat enlarged, but not forming an eye cap; stalk, shorter and more robust than in Lithocolletis. On the whole, I inclir e to refer the insect to the family Elachislidoi of Stainton; but, in the absence of all knowledge of the larvae, it is frequently difficult to determine the affinities of these little creatures. EuLYONETIA INORNATELLA, n. Sp. White, tinged with pale straw yellow, with the dorsal and apical parts of the wings distinctly straw yellow. Antenna?, white, annulate with stramineous. Al. ex., about one third inch. Texas. DRYOPE. The neuration of the forewings in this genus is almost exactly that of Blastobasis, Zell, whilst that of the hindwings allies it to the Ela- chistidoi. Descriptions of some Nev Tineinn. 189 LiTHOCOLLETIS SEXNOTELLA, 11. Sp. Belongs to the same group with argentinotella, rileyella, jitcheUa, quescitorum, etc., but has no basal streak, and has onlj' four costal and two dorsal streaks on the forewings. The head, antennae and palpi, are silver}^ white; thorax and forewings, pale saffron yellow; the costal and dorsal streaks are distinctly- dark margined before; the first costal streak is about the middle of the wing-length, narrow and oblique, and is placed opposite to the large curved first dorsal streak; the second costal streak is behind the middle, and behind it are two others about equidistant. The second dorsal is rather large and triangular, and placed opposite to the space between the second and third costal streaks. Apical spot small, brownish, and rather obscure; and the hinder marginal line at base of the cilia is not very distinct; a little smaller, perhaps, than Jitchella, and the plainest species of its group. LiTHOCOLLETIS QUINQUENOTELLA, U. Sp. Face, palpi and antennae, silver}^ white, the antennae faintly- stained with fuscus. Vertex, thorax and forewings, yellowish saffron (less golden than argentinotella, Clem.) Forewings with four silvery costal streaks, the first two oblique, and the others perpendicular to the mar- gin, and the last passing into the white ground color of the apex, which is densely dusted with fuscus ; none of the costal streaks are dark margined. Opposite to the apex of the first costal streak begins a long, oblique dorsal streak, which, behind the middle of the wing- length, becomes confluent with the second costal streak, and is sti'ongh- dark margined behind. There is no basal streak, apical spot, or hinder marginal line. Legs, silveiy white; but the first pair of tarsi are marked on their anterior surfaces with fuscus spots. Abdomen sil- very white, stained with pale lead color beneath. Al. ex., a little over one fourth inch. Texas. LiTHOCOLLETIS DESMODIELLA, Clem. I have received from Miss Mary E. Muntfeldt a specimen which I refer to this species, and which she informs me was bred from larvae mining leaves of the kidney bean [Phaseolus). Heretofore it has been bred only from the leaves of Desmodium, in which the mine is very small, and from which each mine has only given a single specimen; whereas. Miss Muntfeldt describes the mine as a large bladder-like mine in Phaseolus, and sa3S that several specimens came from a single mine. The single specimen from Phaseolus that I have seen was less 190 (Hncinnati Society of Natural History. brilliant than those bred from Desmodiara, and has the dark margins of the fascia less distinct. Otherwise, I have not noted any difference- LiTiioc'oLLETis CELTiSELLA, Cham., aud L. TRiT^NiAELLA, Cham. I have heretofore referred the larvae of these species to tlic " flat group," having been misled by somewhat hasty observations on the mines found on the upper surfaces of the leaves. In fact, both belong- to the " cylindrical group," the larva? of which are flattened in their first three stages, and cjdindrical in the last four. The mine of tritce- niaella is confined to the upper surfaces of the leaves of its food-plant [Ostrya), and is large, roomy and white. The mine of celtisella begins on the under surface of the leaves of the hackberry (Celt is), where it is long, linear and crooked; but afterwards the larva eats through the parench^'ma to ihe upper cuticle of the leaf, where it makes a flat, blotch-like mine, which is then made tentiform by a small fold of the cuticle. The larva of L. tritosniaella is deeply stained with fuscus — in fact, is almost black, being the only larva of the cylindrical group known to me which shows that color. LiTHOCOLLETIS SOLIDAGINISELLA, U. Sp. From Mr. W. H. Patton I have received a single specimen of a species bred by him, in Connecticut, from a larva mining a leaf of Solidago patula. He was not able to inform me which group the larva belonged to, nor which surface of the leaf was mined by it. The species is not at all closeU^ allied to any of our species heretofore described, and no Solidago feeding species of this genus has heretofore been described. L. basistrigeUa, Clem., is, perhaps, its nearest American compeer, and is of about the same size. SoIidaginiseUa, however, has but a single basal streak on the forewiug, and that one is placed beneath the fold, and extends only to about the basal fourth of the wing length. Ver- tical tuft, thorax, and upper surface of the forewings pale golden yel- low. On the forewings are four silvery white costal and two dorsal streaks. The first two costal streaks are oblique, pointing backward, while the last two point obliquely forward; and all four are rather short, aud all are dark margined behind, except the first, which is unmar- gined; the second and third would, if projected, meet so as to form an obtuse angle about the middle of the wing, where also they would meet the first dorsal streak. The first costal streak is placed a little behind the basal fourth of the wing-length. Tiie two dorsal streaks are longer than. the costal ones, and point obliquely back, so that the Descriptions of some New Tineina. 191 npex of the first is between the second and third costal, and the apex of the second is between the third and fourth costal streaks. Cilia of the forewiugs of the general hue. Hindwings, pale silver}-, with a yel- lowish tinge, and cilia deeper yellowish. Face, palpi and antennae, white, the antenn;>i stained above with ^^ellowish, and with a fuscus spot on each joint. Thorax, white; legs, white, with the anterior sur face of the second pair, brownish; and the tarsal joints, annulate with brown. Phyllocnistis ampelopsiella, Cham. I liave never bred this species, except from mines in leaves of the Virginia creeper, and, as I have already stated elsewhere, from the same sort of mines in the leaves of that plant I liave bred a form indis- tinguishable from P. vitifoliella^ Cham., which 1 have usually obtained from a veiy different mine in grape leaves. P. ampelopsiella (vera.), makes a whitish mine on the under side of A.mpelopsis leaves. The mine, though what we call a linear one, is rather wide. It begins on the side of a vein near the margin, passes down the vein to the midrib, up the midrib to the next vein, up that vein to the margin, where it crosses the vein, passes down it again to the midrib, and so on until some times more than half of a leaf will be ruined. The track is whitish, with a narrow central black line of frass. In a single in- stance, I found a similar mine on the upper side of the leaf containing a dead larva. I have seen thousands of these mines on the under side of the leaf, all such as I have just described, and from them I have bred indiscriminately the true P. ampelopsiella, and P. vifi/olielht. The differences between them are palpable. Ampelopsiella is a little larger and more coarsely scaled than iiitifoUella, and has a dark fuscus streak extending from the base to the middle of the wing, and a dark fuscus spot on dorsal margin before the middle. This streak and spot are alwaA'S absent in vitifoliella, which has also a more silvery lustre. Vitifoliella mines the upper surface of grape leaves, eats more deeply into the parenchyma, and the track oi'mine is narrower, and not white like that of ampelopsiella ; it is long and irregular, wandering all over the leaf without regard to the venation. I have never seen or heard of it on the under side of the leaf. These differences are constant and palpable. Do they mark species or varieties ? I consider them distinct species, but I have received, both from Miss Muntfeldt and Prof. Com- stock, specimens of the true ampelopsiella, from which they inform me were bred from /. mines, nov the surface of the leaves, from which they were bred. Ifviti- foliella and ampelopsiella are forms of the same species, what shall we say of P. vitigenella, Clem.? Its mine is always on the upjje^- surface of o-rape leaves, and it has never been met with in those of ampelopsis. It is very different from the mine of ampelopsiella, more like that of vitifoliella, inasmuch as it wanders over the leaf regardless of the vena- tion. But the character of the mine is very different from those both of ampelopsiella and vitifoliella, inasmuch as it is barely perceptible, like the track of a miuute snail; that is, it looks like an indistinct line of slime, and not like a mine at all. The reason is that the larva hardly burrows through the cuticle, and does not go down into the parenchyma, and the track has a greenish, slimy look. The imago of vitigenella is like that of vitifoliella in size and lustre, but it has the basal streak and dorsal spot like ampelopsiella, only that they are not so heavy, not being either so dark or so large as in that species. These differences do not grade into each other; they are always distinct and well marked. I have never seen a specimen (and I have seen hundreds, if not thousands) which could not at once be referred, without hesitation, to its appropriate form, or which showed the slightest indication of any other form than its own, and I should not have the slightest hesitation in considering them clearl}- distinct species, but for the facts above stated that I get from the ampelopsiella mines the vitifoliella form as frequentlv as I do the true ampelopsiella, and that Miss Muntfeldt and Prof. Comstock inform me that they have bred the true ampelopsiella from grape leaves. Still it is always the true ampelopsiella-^-the true vitifolella, or the true vitigenella—uevev any thing between them. It would not be any thing strange if a single species should feed on two plants as closely related as ampelopsis and vitis. But that the same mine in ampelopsis should give two distinct forms; that one of these forms should always come from a different mine in grape leaves, and that a still different form of mine from the same grape leaves should give always an intermediate form, and yet that these three forms should al- ways be distinct, with no obserA^ed tendency to variation in either, is singular; and one's curiosity is still more piqued when he finds that a mine more like that of vitigenella than either of the others; in a plant as far removed, botanically, as the sweet gum {Liqudamber styraci- Jlora) should always give a form indistinguishable from vitifoliella. The vitigenella mine has not been known to produce any thing but vitigenella, which is the intermediate form above alluded to. Descriptions of some New Tineina. 191} NEPTICULA. N. UNiFASCiELLA, Cham. Described from specimens bred iu Kentuck}'. I have also received it from Texas. N. GRANDISELLA, n. Sp. Chiefly remarkable for its large size for this genus, having an al. e.r., of over 3-8th inch. Face, sordid, straw or sandy 3'ellow, with palpi a little paler; eye-caps, white; antennjie, reddish brown. Bod}-, wings and legs, brown. Texas. N. MACULOSELLA, U. Sp. Resembles N. nigrivuticella^Cham., and may prove to be the same, or a variety, but t think it is distinct. Antennae, pale yellowish, stained above with fuscus; eye-caps and palpi, sordid white; vertex, blackish brown; tufl, small; forewings. pale ocherous or yellowish white, dusted with small fuscus spots, with a dark brown longitudinal streak on the costal margin at the base, and near the base a dorsal dark brown spot which reaches the fold, and in the apical part of the wing a very large brown spot or fascia which is widest on the costal margin; cilia, paler than the wings; hindwings, pale lead color; abdomen, pale ochreous beneath, brown above. Al. ex., 1-4 inch. Texas. N. QUERCiCASTANELLA, Cham., and N. castane^foliella, Cham. I have bred these species from tlie white oak, as well as the chestnut oak and chestnut. TINEA. T. tapetzella, Linn. var. occidentella, var. nov. T. tapetzella is known in this country only by two specimens, one received b}' Dr. Clemens from Virginia, and one received by me from Quebec. The minute difTerences of these specimens and European ones, indicated b}^ the notes of Dr. Clemens and myself, are probably not greater than may be observed among European specimens. I have to thank Mr. James Behrens, of San Francisco, for these specimens, sent to me from that place, which I think belong to a A'ariety of tapet- zella, but which ma}^ prove to be a distinct species. In these three 194 Cincinnati Society of Natural History. specimens, which agree accurately with each other, the brown basal por- tion of the wing does not end abruptly as in tapetzella^ but passes gradually into the whitish portion, which itself is strongly suffused with fuscus. The brown basal portion is posteriori}- margined on the fold, by a small brown spot, margined behind by a larger white one. The apex and apical part of the wing are as dark brown as the base, and there are three or four white spots along the base of the dorsal cilia. Corrigenda. — In my "Address," on pages 73 and 75, the name of Mr. W. H. Edwards is incorrectly given as " H. W. Edwards" and " H. .S. Edwards''. I regret these errors, and am at a loss to account for them, for not only is the name of Mr. Edwards familiar to me as to all entomologists, but when I wrote the " Address, " his papers with his name as author, properly given, lay open before me. V. T. C. ILLUSTRATIONS OF THE NEUBATION OF THE WINGS OF AMERTCAN TINE IN A. By V. T. Chambers. The student of the American Tineina will of necessity be compelled to consult Mr. Stainton's volume of the Insecta Britannica, vol. 3, which contains figures of the neuration of the wings of the greater number of genera of European Tineina. The greater number of the Tineina found thus far in America belong to genera already known in England, and illustiated in the volume referred to : and I have there- fore not thought it necessary to give illustrations of tiie neuration f)f species belonging to such genera. Dr. Brackenridge Clemens found it necessar}' to define many new genera among the American species of this group examined b}^ him ; and he has given, in his published papers, illustrations of the neuration of the wings of many species of genera so defined by him ; and I have not thought it necessary to repeat his illustrations here, since the papers of Dr. Clemens, repub- lished by Mr. Stainton, under the title, Tineina of North America, will be found to be even more necessary to the student than the volume of Insecta Britannica above referred to. Some of Dr. Clemens' genera, however (such as Parcetopa), I have found to be identical witli genera previousl}' established {Parcetopa is equivalent to 6'yac<7/f■ being the variable; it is preferable, however, to proceed as follows: Neglecting the term {l-\-ax) and substituting — sin^ (E' — M) for ax we have tan (E— i M) = tan (E'— i M) (1— || sin'^ (E'— M) ). (14) Since 1 — z is approximately equal to — j — where 2 is a small quan- tity, equation (14) may be written tan (E— I M) = tan (E— iM) l-|_«|sin^(E'-M) ^^^^ Employing the previous example for an illustration, we have the following values of our constants; log tan (45°-[-ai) =^ 0-2175146; log « = 0-42326; log -=0-40452, which is the function of Zech's sub- traction table, corresponding to the argument log tan ( 45°-f-"' ) • 12 ap los — = 1-06044 ^ M 164° 52' 13"- 83 log tan ^ M 9-4319633W log tan (E'— I M) 9-6494779??, E'— ^ M 155° 57' 22" E'— M —8 54 52 The derivation of this equation was suggested by Prof. Stone. 208 Cincinnati Society of Natural History. log log sin (E'— M) log sin^ (E'— M) 12 9-19022M 8-38044 2-68000 ap sin^(E'— M) Zech 0-0009064 log approx. tan (E— | M) 9-6485715n approx. (E— iM) 156° 0' 2"-05 true (E— 1 M) 156 0 1 -69 It is readily seen from this solution that equation (15) gives ex- ceedingly accurate results. The following table is self-explanatory : Corrections to values of E, found by equation (15). M 9 M 5° 70 90 11° 13° 15° 0 0-00 0-00 0-00 0-00 0-00 0-00 360 20 0-00 —0-01 —0-02 +0-01 +0-04 +0-12 340 40 0-00 0-00 +0-05 +0-18 +0-46 +1-14 320 60 —0-01 0-00 +0-12 +0-33 +0-77 +1-50 300 80 0-00 +0-01 +0-11 +0-20 +0-31 +0-36 280 100 —0-02 -f-0-02 +0-02 +0-01 -0-08 —0-39 260 120 -f-0-01 0-00 0-00 -0-02 —0-11 -0-27 240 140 0-00 +0-01 —001 —0.01 —0-02 —0-05 220 160 —0-01 0-00 0-00 0-00 0-00 0-00 200 180 0-00 0-00 0-00 0-00 0 00 0-00 180 When M exceeds 180°, the signs of the functions in this table must be changed. The table was formed by subtracting values of E given by equation (15), from those computed in the ordinary manner, using seven-place logarithms, and is, therefore, liable to slight errors in the last decimal place. Three Approximate Solutions of Kepler's Problem. 209 Method III. From equation (7) we deduce .„, , ^,. sm (L'— M) cos (E — i M) = \ — nvr • ^ - g sm ^ M Multiplying both members by \-^ and reducing, we have q sin M Substituting in (5), we obtain Assuming and sin(E'_E) = 2^M?:=^)F(E). ^ ^ e sm M ^ ^ sin (E'— E) = (E'— E)" sin 1" (Ifi 2 a sin (E'-M)^ cos (E'-J M) ^^^ a sin M ^ ' cos A M ^ ' ^ (IS) (19) F (E) = j2 sin' (E'— M), equation (18) becomes , E)-- sin^(E'-M) ^ 6 e sin M sin 1" This equation may be employed in connection with tan (F/— l-M) = tan (450-|-w) tan 4 M, or with sin (E'— M) = g sin -i M cos (E'— i M). Using it with the former equation, the solution of the previous example is effected as follows : log tan ( 45°-f-<^ ) = 0-2175146; loo- cosec 1" ITe" = 5-14655. M log tan ^ M log tan (E'— I M) W—\ M E'— M log sin (E'— M) log sin* (E'— M) log cosec M log approx. (E' — E)" approx. (E' — E) true (E'— E) 164° 52' 13"-83 9-4319633^i 9-6494779?^ 155° 57'-21"-98 —8 54 52 9-19022>i 6-76088 0•29765?^ 2-20508yi —2' 40"-36 —2 39 -71 210 Cincinnati Society of Natural History. Corrections to values of E, found by Method III. M 9 M 5° 70 9° 11° 13° 15° 0 0-00 0-00 0-00 0-00 0-00 0-00 360 20 0-00 -(-0-01 4-0-01 —0-02 —0-06 —0-19 340 40 4-0-01 —0-01 —0-08 —0-29 —0-84 —2-12 320 60 -f-0-01 —0-02 —0-19 —0-59 —1-49 —3-24 300 80 0-00 —0-04 —0-17 —0-43 —1-80 —1-57 280 100 0-00 —0-02 —0-05 —0-11 —0-12 —0-03 260 120 0-00 4-0-01 0-00 0-00 4-0-06 4-0-19 240 140 -fO-01 0-00 4-0-01 4-0-01 4-0-02 4-0-06 220 160 0-00 0-00 0-00 0-00 0-00 0-00 200 180 0-00 0-00 0-00 0-00 0-00 0-00 180 When M exceeds 180°, the signs of the functions in this table must be changed. The methods here given are intended for use in computing the orbits of minor planets. The corrections given in the tables increase \Qxy rapidlj^ as cp increases. An examination of the elements of 200 aste- roids, published in the Berliner Jahrhuch and its Circular., gave the following results: Number of (f Asteroids. 0°— 5° 40 5o_xoo 86 100—15° ? 61 15o_20° 9 >20° 4 It is readily seen that the orbits of the great majority of these have f <^ 15°, and that these methods ma}^ be rendered useful b}- enlarging the tables of corrections. It is my intention to develop this subject further, and to publish tables for the use of computers. Oil Ihc Extra- 31 eridian Determination of Time. 211 OX THE EXTRA-JIEJilDIAX nETEB3IINATI0X OF TIME BY JIEAXS OF A POUT ABLE TBAN81T IX STB U 31 EXT. By Okmoxd Stone, A. M.. Astronomer of the Cincinnati Observatoiy. It is a well-known fact that in the determination of time by means of a portable transit, the principal source of error is the instability of the instrument. It is important, therefore, that the observations be so aiTanged that the instrumental errors may be considered constant for as short an interval as possible. On this account it is usual to de- termine the level error independently for each star. For the determi- nation of the azimuth, transits of at least two stars must be observed in the same position of the instrument ; for the determination of the collimation, observations must be made in reversed positions of the horizontal axis. The azimuth may be eliminated b}' observing in the zenith, or by observing two stars whose declinations are such that tan o — tan (p = tan cp — tan 8, where o is the latitude of the place. Although these conditions can not in general be rigidW fulfilled, it has been for some time the custom at this Observatory to approximatel}' accomplish the object desired, by observing sets of four stars situated within 20° alternateh^ north and south of the zenith, and, as nearh' as may be convenient, at equal distances from it. One advantage of this method is that pole stars are avoided. When observing in the field it is somewhat inconvenient to adjust the instru- ment exactly in the meridian, and when this is accomplished, the ob- server can not alwa3'S afford to wait for the passage of a circumpolar star. Various methods have therefore been developed for the reduc- tion of observations made in the vertical of the pole star, instead ot the meridian. All of these methods are somewhat complicated, and although earnestly recommended by some of the most competent judges, especiall}' within the past few years by Professor Doellen, the distinguished senior astronomer at the Poulkova Observatory, the}^ have not come into general use, except perhaps in Russia. Observations of pole stars are very convenient, and in fact necessar\-, for the deter- mination of fundamental right ascensions with large fixed instruments, but for the determination of time possess but little advantage, except for purposes of orientation. 212 Cincinnnti SocAety of Natural History. Let T = the observed time of transit of a given star over tlie mean wire, a = the right ascension of the star, 8 = the declination of the star, . r = the hour angle of the star east of the meridian at the time of observation, 90° — m = the hour angle of the point in which the horizontal axis of the Instrument produced toward the west meets the celestial sphere. d and h = the declination and altitude of that point, g = the angular distance of the mean wire frora the coUimation axis, t = the clock correction = a — T — - Then, putting n = tan d, and c = sin g sec ??, and neglecting b, since it may be applied directly to the reading of the clock, we have sin m = — n tan ?,)] dm = (tan ') — tan '_J!!z:!^_.. (20) Also, if and we have whence «> = «— T— r,, (21) t^ = a'.-r~r;, (22) ^. = ^i-(^-^,) = ^/-(-/-- ') = ^ — r,v = A/— r/ .. (23) V = _!__>. (24) '1 '~~'\ In the same manner, for two stars observed in the reversed position of the horizontal axis, tr = ^/'— - " v" = t;"—T-' v", (25) when ce. •^" = ^'^->,- (26) Equations (14) and (15) give, cos o' — cos 5 ,^_, w — ?i., = c . {Ti\ sin (-J'— '5) ^ ' ... /;=^.,_csec^''°iili^llfl, (28) ^cosi(^'4-3) ^ ^ 214 ^ Cincinnati Society of Natural Hi-storij. where z=^(p — 8 and z' ^S' — ^, assuming tJ' ^ ^ ^ o, and for the stars observed in the opposite position of the horizontal axis, CCt'S, J- ( y'" y" \ t = ^.,"+c sec 0 -^ ^ :i_i, ( 29 ) cos ^ (z"'-\-z") where z" =

o". Assuming that the stars observed are not far from the zenith, and neglecting small quantities, we have c sec ^=1 (^,— ^,"), (30) cos \ (z' — z\ 1 — 2 sin- -^ (z' — z) cos ^ (z'-\-z) 1 — 2 sin- ^ (z'-\-z) = 1-2 (sin^ i (-_^)_sinH (^'+.^) ) = 1+2 sin 4 z sin ^ z\ (31) cos -1 (z"'—z") ^ 2 sin i z" sin ^ z'". (32) cos 4- {z"'-[-z") ^ - - , ^ ' . • . taking the mean of (28) and (29) t = ^ (t.^-\-t,")-^ ^ (t,—t,") (sin ^ z" sin | 2'"— sin -k z sin 4- 2'); (33) or, if Z' =2 sin 1° sin 4- i' sin 1° 7"_9 SI" ¥ sin 1° ' ~"^ sin 1° ' t = \{ t.r^f.;' )-|-0-000038 ( t~t.:' ) ( Z" Z'"— Z Z' ), (34) in which Z, Z', Z", Z'" may be assumed to be tlie zenith distances ex- pressed in degrees. After making the preliminary reductions and correcting for level error, we may assume for the first approximation, ^ _^sin(a--T'-(«-T)) sin(a--T--(a--T-)) ' tan 5'— tan 8 ^^ tan rf"— tan <5" ' ^' ' Witli this value of /i, compute sin hi^ = ■ — n, tan (f, (30) On the Extra- Meridian Determination of Time. 215 and for each star sin (r, — m,) = >?, tan (5, (37) T, = (r— )H,)-f-m„ (38) ^, = a _ T — T,. (39) Then from the stai'S observed in each position of the horizoi ital axis, compute t, '—t r/ — r,' (40) u" . ^1 '^l (41) r'"— r"' t, = t,—r, V = ^i'— r,' V, (42) «/'=^/'_r/'/' = NORTH AMERICAN MESOZOIC AND C^NOZOIC GEOLOGY AND PALEONTOLOGY. By S. A. Miller, Esq. \^Continued from page 161.] Dr Joseph Leid}'* described, from the Triassic rocks of Star Canon. Humboldt county, and from Toij^abe Range northeast of Austin, Ne- vada, Cymbospondyhbs peti'inus, C. piscosus and Chonespondylu.^ grandis. And Prof. E. D. Cope, from Chatham count}^ North Carolina, the batrachian Pariostegus myops. In 1869, T. A. Couradf referred the clays on the Raritan river, in New Jerse}', which are found at the base of the Cretaceous, to the Triassic, and described Podozamites proxbnus and Palceocypi'is tri- nodiferus. He described from South river,+ New Jersey, Astarte veta, and A. annosa, and from Perkiomen Creek, Pa.,§ Solenomya triasina. Prof E. D. Cope, II from the Triassic at Phoenixville. on the Schuyl- kill river, Pa., the Saurian Belodon leptarus. In 1870, W. M. Gabb^ described, from New Pass, near Austin, and in the slates of Star Canon, Cardinia ponderosa, Posidonomya blatch- leyi, CassianeUa lingulata and Monotis ch'culat'is. And from the Jurassic of the mining district of Volcano, in Nevada, Ammonites ne- vadensis, Turbo regius, T. elevatus, Pholadomya multilineata, P. nevadana, Gonio^nya aperta, Cardium arciformis, Astarte appressa, PUcatula perimbricata, and Spirifera obtusa; and from the slates on the west slope of the Sierra Nevada, near Colfasr, Ammonites colfaxi. In 1871, Prof. J. W. Dawson** described from the Trias of Prince Edward Island, Z)a(Zox?/?on edv i rdanum siud Cycadoidea abequidensis. In 1872, ff he said the Trias of Prince Edward Island is represented principally by bright red sandstone, sometimes mottled with white and associated occasionally with beds of gray and white sandstone. Sub- ordinate to these sandstones are beds of red and mottled clay, of red- dish concretionary and conglomerate limestone, sometimes dolomitic. and of reddish conglomerate with quartz pebbles and arenaceous * Proc. Acad. Nat. Sci. t Am. Journal Sci. and Arts. 2d scries, vol. 47, X Am, Jour. Conch., vol. 4. I Am. Jour. Conch., vol. 5. il Trans. Am. Phil. Soc. H Am. Jour. Conch., vol. 5. ** Report on Prince Edward Island, tt Lond. Geo. Mag., vol. 9. 224 Cincinnati Society of Natural History. cement. These beds undulate in low synclinals and anticlinals, having- in general a northeast and southwest direction, and rise in some places to an elevation of 400 feet above the sea. The^^ are probably about 500 feet in thickness. The lower half of this thickness, which con- tains the limestone beds, and also certain hard beds of conglomerate and concretionary calcareous sandstone, may be regarded as an equiv- alent of the Bunter Sandstone ; while the upper portion, consisting principally of soft red sandstone, with some beds of fine grained con- glomerate may be regarded as corresponding to the Keuper. These beds rest conformably upon the newer coal measures without the intervention of the Permian. They appear to have been deposited in a shallow sea area, not improbably coincident with the Southern Bay of the Gulf of St. Lawrence, limited to the north by the Magdalen Islands and the banks in their vicinity, which represent an old Lower Carboniferous outcrop. Their materials were derived from the waste of red sandstones and marls of the Carboniferous, and have been thrown down with sufficient rapidity to prevent the coating of red oxide of iron from being removed by abrasion, or hy the chemical action of organic matter. The dolomitic character of some of the coarse lime- stones may either indicate the occurrence of occasional isolated basins and depositions of magnesia from sea water, or may have been connected with the outburst of igneous matter in magnesia, like the dolerite of Hog Island, near to which place the beds richest in mag- nesia were observed. In 1872, F. B. Meek* described from the Jurassic, at Lincoln Valley, near Fort Hall, Idaho, Aviculopecten idahoensis. In 1873, Dr. F. V. Hayden estimated the thickness of the Jurassic, on the Missouri, below the Canon at the Three Forks at 1,500 feet. A section, in Spring Canon, on the headwaters of the Gallatin river in Montana, of limestones, sandstones, quartzites and conglomerates, dis- plays a thickness of 425 feet, followed below by 65 feet of Triassic age.f And F, B. Meek described from Montana Gervillia montanensis, Go- niomya montanensis, Myacites suhcompressus, Pholadomya kingi, Trigonia americana, T. montanensis, and Volsella suhinibricata. In 1874, Dr. Hayden;]; estimated the thickness of the Triassic on Eagle river, consisting of brick-red sandstones and clays at from 1,200 to 1,500 feet, and above them 200 feet or more of Jurassic rocks, suc- '•' 5th Rep. Hayden's U. S. Geo. Sur. Terr. t 6th Rep. Hayden's U. S. Geo. Sur. Terr. t 7th Rep U. S. Geo. Sur. Terr. 3fesozoic and Ccenozoic Geology (oid Falfjeontology. 225 ceedecl by a quartzite belonging to the Dakota Group, having a thick- ness of 150 feet. At Little Thompson's creek it consists of soft granite sandstones and conglomerates below, followed by red, shal}' and mas- sive sandstones above, and reposes upon the smoothed and often irreg- ular surface of Archaean rocks. It has a thickness of 750 feet. It thins out north of Golden City, where it has a thickness of scarcely 400 feet, but rapidly thickens in its extension southward to where the South Platte debouches from the mountains; here it attains a thickness of 1,600 feet. Dr. A. C. Peale's section through Pleasant Park repre- sents its thickness at 1,580 feet, and from Glen Evrie eastward to Camp creek, 1,280 feet. A section of the Jurassic rocks, taken b}' Wra. H. Holmes near Saint Vrain's Creek, gave a thickness of between 400 and 500 feet; and an- other in Bear Canon, 870 feet; another near Ralston creek, 660 feet; and anotlier near Bear Creek, 770 feet. Dr. A. C. Peale's section through Pleasant Park furnishes a thickness of about 461 feet, and from Glen Eyrie eastward to Camp Creek, 405 feet. Prof. E. D, Cope* detected the first vertebrate fossils in the Trias of the Rocky Mountains of New Mexico, including carnivorous Sauri- ans and Uuionidtie, the latter indicating a lacustrine deposit. In North Carolina f there are two narrow, fringes of an eroded and obliterated anticlinal which belong to the Triassic; the smaller or Dan river belt, from 2 to 4 miles wide, following the trough-like valley of that stream, about N. 65° E. for more than 30 miles, to the Virginia line, and then extending into Virginia about 10 miles; the other, the Deep river belt, extending in a similar trough 5 to 15 miles wide (and depressed 100 to 200 feet below the general level of the country), from the southern boundary of the State in Anson county, in a N. E. direc- tion, to the middle of Granville county-, within 15 miles of the Virginia line. They are separated, therefore, by a swell of country 75 to 100 miles wide, which rises along its topographical axis to 800 or 900 feet above the sea, the troughs themselves having respectively an elevation of 500 to 600 feet, and 200 to 300 feet. The belts are convergent in the direction of the Triassic beds of Virginia, with which they were doubtless once connected (as well as with some small intervening outliers) in one continous formation. The dip of the Dan river beds is about 35° N. W. (20° to 70°) and those of Deep river, 20° S. E. (^10° to 35°). The rocks are sandstones, - Proo. Am. Phil. Soc. t Kerr's Geo. of N. Carolina, 1875. Emmons Geo. Sur. 1856. 22t> Cincinnati Society of Natural History. clay slates, shales and conglomerates, generally ferruginous and brick red, but often gray and drab. The shales are occasionally marly, and thes'e and the sandstones are sometimes saliferous. Many of the beds consist of loose and uncompacted materials, and are therefore easily' abraded. The most important and conspicuous member of the series, is a large body of black shales, which enclose seams of bituminous coal 2 to 6 feet. This coal lies near the base of the system in both belts, and is underlaid on Dan river hy shales; and on Deep river by sandstones and conglomerates; the latter constituting the lowest member of the series, and being in places verj'^ coarse. And near the eastern margin in Wake county, where the belt reaches its greatest breadth (some 15 miles), the conglomerates are of great thickness and very coarse, un- compacted and rudely stratified, resembling somewhat the half strati- fied drift of the mountain slopes, the fragments often little worn, and sometimes 10 to 12 inches in diameter, and evidently derived from the Huronian rocks of the hills to the eastward. The conglomerates of thfe Dan river belt are among the upper members of the series, and are mostl}' fine and graduating to grits and sandstones. The black shales near the base of the s^-stem contain beds of fire clay and black band iron ore, interstratified with the coal. They are also highly fossiliferous, especially on Deep river. Silicified trunks of trees are ver}^ abundant in the lower sandstones, as may be seeu con- spicuously near Germantown, in Stokes countj^ the public road being in a measure obstructed b}^ the multitude of fragments and entire trunks and projecting stumps c»f a petrified Triasuic forest; and simi- lar petrifactions are abundant in the Deep river belt, occurring in this, as in the other, among the sandstones near the horizon of the coal. The actual vertical depth to the underlying Archaean rocks on Dan river may not exceed 1000 feet, but what Avas the original thickness of the strata before denudation began can only be conjectured. The beds on Dan river, however, measured at right angles to the dip, gives a minimum thickness for that side of the formation of near 10,000 feet. In the section of the Deep river belt, which is exposed in the valley of the Yadkin, not only is there a width of six miles with the usual dip of 20°, but there is an additional outcrop more than a mile in breadth, ten mites south of the principal belt, which preserves the southeasterly dip of nearly 20°, and hence the calculation for a minimum thickness, at this margin, must be based on a breadth of 16 miles, which gives a thickness of more than 25,000 feet. There is no way of accounting for the present position of these beds Mesozoic and Ccenozoic Geology and Palaeontology. 227 with their opposite and considerable dips, but by supposing an uplift of the intervening tract, such and so great, that if the movement were now reversed, it would carry tliis swell of nearly 100 miles breadth into a depression much below the present level of the troughs in which these remnant fringes lie, so that there has been an erosion not only of 10,000 to 20,000 feet of the broken arch of Triassic beds over this area but also of a considerable thickness of the underlying rocks on which they had been deposited. The present area of Triassic in North Carolina is about 1,000 square miles, about one third of which, it is estimated, is underlaid with coal. Prof. G. K. Gilbert* found a section of the Trias exposed by the North fork of Virgin river, from the vicinity of Mountain Lakelet to Rockville, in Southern Utah, 3,250 feet in thickness, and the Jurassic at the same place 350 feet. The Triassic on the West Fork of Paria Creek, 2.575 feet, and the Jurassic 740 feet. And the Triassic at Jacob's Pool, Northern Arizona, 2,150 feet in thickness. E. E. Ho- well estimated the Trias at Rock Canon, near Provo in the Wahsatch Range, at from 4,000 to 5,000 feet, and the Jurassic from 6,000 to 8,000 feet. On Pine Mountain, the Trias at 4,650 feet, and the Jurassic at 1,200 feet. On the Dirty Devil river in Northern Utah, the Jurassic is about 800 feet thick, on the southwest side of Escalante river, 60 miles far- ther south, from 1,000 to 1,200 feet. The thickness of the Triassic in New Mexico and Eastern Arizona is from 1,200 to 1,800 feet. This gradually increases to the westward until near Pai'ia, it is 2,250 feet Ninety miles to the northeast, on the Dirty Devil river, 1,700 to 1,900 feet, is found, while near St. George, farther west, the thickness is esti- mated between 5,000 and 6,000 feet. J. J, Stevenson found the Triassic on Beaver Creek, a few miles northeast of Canon Cit}^ 2,700 feet in thickness, and unconformable with the Jurassic above, wherever it is observed in this region. Prof. G. M. Dawson, f separated the Triassic or Jurassic of the Rocky Mountains, near the boundary monument, in des-cending order, into — 1st. Fawn-coloi'ed flaggy beds, 100 feet. 2d. Beds characterized by a predominant red color, and chiefly red sandstone, but including some thin greyish beds, and magnesian sandstones, the whole generally thin bedded, though sometimes rather inassiA'e. Ripple marks, etc., weath- ers to a steep rocky talus, where exposed on the mountain sides ; and passes gradually down into the next series, 300 feet. '■■■ Geo. Sur. W. 100th Meridian, vol . 3. t Rep. Geo. 49th Parallel. 228 Cincinnati Society of Natural History. Theo. B. Corastock* found^the Jurassic limestones outcropping in many places, in the Wind river country, particularly in the neighbor- hood of the mountains, upon both sides of the plateau, and having a thickness of about 1,000 feet. And Prof. E. D. Copef described from the Trias of the Rocky Moun- tains, in New Mexico, Typothorax coccinarum. In 1876, Prof. J. W. Powell J separated the Jurassic and Triassic rocks of the Plateau Province of the west in descending order, as fol- lows— 1. Flaming Gorge Group, .... 1200 feet. 2. White Cliflf Group, 1100 " 3. Vermilion Cliff Group, . . . . 1100 " 4. Shinarump Group, ...... 1800 " The Flaming Gorge Group is of Jurassic age, the other three are situated above the carboniferous, but whether they should be referred to the Jurassic or the Triassic has not been determined. The Flaming Gorge Group consists of bad-land sandstones, some- times ai'gillaceous with much gypsum, massive sandstones and lime- stones. A bed of limestone at the base is from 10 to 200 feet in thick ness. In Southern Utah it caps an extensive escarpment which is called the white cliff limestone. It can be well studied at Flaming Gorge, the tj^pe locality. Commencing at the conglomerate of the Henry's Fork Group, and going southward, you pass over the upturned edges of the beds, crossing the bad-land sandstones, then the mid- group limestones, and then the bad-land indurated sandstones until the limestone is reached. The bad-land sandstones both above and below the mid group limestone are of fresh water origin. The White Cliff Group is a massive, obliquely laminated sandstone, often a beautiful white or golden color, sometimes red. In a few places there are heavily bedded sandstones. The typical locality is in Southern Utah. The Paria, Kauab, and Rio Virgen with their many tributaries that head in the Pink Cliffs above and to the north, have cut many canons and canon valleys through these escarpments plainly revealing the structural geology and stratigraphy. The Vermilion Cliff Group consists of massive sandstones with fer- ruginous layers, and often with thin, irregular beds of chertj' lime- stone ; the massive beds sometimes broken into thinner strata. It is also well exposed in the Paria, Kanab, Rio Virgen and their tributa- * Jones' Report on Nortliwostern Wyoming, etc. t Proe. Acad. Nat. Sci. t Geo. of Uinta Mountains. Mesozoic and CUenozoic Geology and Palceontology. 229 ries. The waoon roarl IVom Toquerville to Paria, a little town on the Paria river, soon after climbing the Hurricane Ledge, reaches the foot of the Vermilion Cliffs, and continues at this geological horizon until it commences to descend into the valley of the Pai'ia. For seventy-five miles the road lies under this great ledge, whose salient buttes, deep alcoves, terraced and buttressed walls, towering pinnacles, all brightly colored in orange, vermilion and purple, and dotted here and there with straggling cedars and nut pines, constitute a grand panorama to the passing traveler. Flaming Gorge, on Green river, is cut through beds of this group, and received its name from the bright colors of the sandstone. Labyrinth Canon and Glen Canon present fine exposures, and fine exposures may also be seen along the Colorado Chiquito. The Shinarump Group is separable into the Upper Shinarump consisting of bad-land sandstones with muchg3-psum; often argilla- ceou:j; sometimes indurated sandstones. 2d, the Shinarump conglo- merate, consisting of a fine conglomerate, not easil}' recognized toward the north, about 20 feet in thickness, but increasing southward until it attains 200, feet. It is found capping an extensive escarpment, known as the Shinarump Cliff's. And 3d, the Lower Shinarump, consisting of bad-land sandstones with much gypsum ; sometimes argillaceous; in a few places the_v are indurated sandstones; sometimes unconform- able hy erosion with the next. In such places a conglomerate is found at the base, composed of rounded and angular fragments of carbon- iferous rocks. The variegated beds above and below the conglomerate are seen in many places on either flank of the Uinta Mountains, and from time to time this horizon is brought up hy faults or flexures in all the stretch of country which intervenes between the Shinarump CliflTs and the Uinta Mountains. This group may be seen at the foot of the clifl" on the south side of Flaming Gorge, and throughout the valley of Sheep Creek. Outcrops are found in Po Canon district, at the foot of the Yampa plateau to the east, south and west, from the foot of "Whirlpool Canon, through the Island Park district, and south of Echo Park, at the foot of the Yampa plateau. The Shinarump Conglomerate is characterized by the occurrence of silicified wood in large quantities. Sometimes trunks of ti'ees occur, from 50 to 100 feet in length. Shinarump means literally " Shin-au- av's Rock." Shinauav is one of the Gods of the Indians of that coun- try, and the3" believed these trees to have been his arrows. The plane of demarkation between the Shinarump and the summit of the Carboniferous is always well marked. 230 Cincinnati Society of Natural History. Prof. C. A. White described from the Flaming Gorge Group, Green river, near the northern boundary line of Utah, U?iio stewardi, and from the mouth of Thistle Creek, Spanish Fork Canon, Utah, JSTeritina powelli. R. P. Whitfield * described from the Jurassic in the Bridger Moun- tains, Montana, Gryphaea plariocojivexa, GervilUa sparsalirata and Myalina ijerplana. Dr. F. V. Hayden,f speaking of the Triassic Group of Colorado and the West, as late as 1876, says: The Red Beds or Triassic Group is very persistent, and if absent at all, only at very short intervals. No organic remains have yet been found in this group, by the members of the survey undSr my charge, yet, for various reasons, we have assumed the red sandstones to be of Triassic Age. It is barely possible that a portion or all of the Group is of Jui-assic Age. Yet Prof. Cope is of the opinion that he has dis- covered evidence in New Mexico of its Triassic Age. The history of this Group is still obscure, and remains as one of the problems to be solved by more extended and more thorough explorations. Geograph- ically it is one of the most widely distributed formations in the west. From the northern boundary to the southern line and east of the Wa- satch range, in Utah, this red formation makes its appearance wherever a mountain range is elevated so as to expose the various sedimentary groups. The evidence indicates that it extends without any import- ant interruption over the broad area as defined above. These red sandstones have alwaj^s attracted much attention, on account of their peculiar color, but nowhere have I ever observed them performing such a conspicuous part in giving form to the scenery of the countr}', as along the eastern base of the Rocky Mountains in Colorado. This feature is more marked from a point about fifty miles north of Denver to Colorado Springs, than in an}^ other portion of the continent. Along this belt the sandstones are more compact, with every variety of red, from a pale, dull tint to a deep purple color. There is also every variety of texture, from a rather coarse conglomerate to a fine sand- stone. It varies much in thickness, ranging from 400 to 2,000 feet. These sandstones in Pleasant Park, the '• Garden of the Gods," and other places have been weathered into the most fantastic shapes, and stand up in immense walls or columns from 50 to 250 feet in height. Dr. A. C. Peale found Permian fossils in the beds below the red sandstones referred to the Triassic, and as Dr. Ilavden and others had * Carroll to Yellow Stone, Nat. Park. t U. S. Geo. Sur. Terr. Mesozoic and Ccenozofc Geology and Palwontology. 231 found Jurassic fossils, in the beds above, which are referred to Juras- sic age, it left tlie conclusion with him that the red sandstones are of Triassic age. The credit, however, of first announcing the age of these sandstones is due to M. Jules INIarcou, who, as early as 1853, in his ''geological map," etc., "with an explanatorj' text," referred the beds of conglomerate, described by Capt. Stansbur}-, in the environs of the Devil's Gate, Rocky Mountains, and the conglomerate and sand- stone described hy Prof. Dana, on the Shaste river, and the boundary between Oregon and California, to the Trias. The reader may also be referred to his " Resume and Field Notes," in Vol. 3, Pacific R. R. Sur- vey, where he identified these rocks at numerous places near the 35th parallel. Dr. Peale found a section of Jurassic rocks, at the head of Second Canon, Eagle river, about 940 feet in thickness, and consisting of marls, sandstones and limestones. Another on Roaring Fork below station No. 14, 440 feet thick, and another in the lower Canon of Gun- nison river, near station GO, representing 242 feet in thickness. It oc- curs usually onl}' as a narrow belt outcropping beneath the Dakota Group. In 1877, Arnold Hague* estimated the thickness of the Triassic on the outlying ridges and foot hills of the east side of the Colorado Range at 800 feet. Tlfe group is found immediately overlying the Coal Measures all along the foot-hills of the range, the continuity of the out crop being broken in only a few places, and in most cases, simpl3' by being concealed below the uncomformable Tertiary beds. The rocks are characterized by a prevailing brilliant red color, which shades off" into yellowish and vvhitish tints, and, near the top and bot- tom of the sei'ies, show frequently reddish-gra}' bands. The deep brick- red color, however, is so persistent as to form one of the most clearl}^- deflned geological horizons of the uplifted sedimentary beds. The group reaches its greatest development to the southward in Colorado, between the Big Thompson and Cache la Poudre, while north of the railroad it appears much thinner, and, between Lodge Pole and Horse Creek, reaches its minimum. Still farther to the northward, in the region of the Chugwater, it again thickens, but scarcely attains the thickness in Colorado. A section at Chugwater shows between 500 and 600 feet of strata, and another at Box Elder Creek, 650 feet. Sandstones form by far the greater part of the entire series of strata. Even the conglomerates, shales, clays and earthy beds, which occur in- - Geo. Expl. 40th Parallel. 232 Cincinnati Society of Natural History. terstratified, appear more or less arenaceous, and are reall}- closely allied to true sandstones, only showing considerable diversity in texture and mechanical conditions. Deposits of gypsum are very common in the upper beds. The Triassic is exposed along the Laramie river, exhibiting a series of nearly horizontal strata, 1,000 feet in thickness. In one place a de- posit of pure solid gypsum, 22 feet in thickness, occurs, lying between two beds of hard red sandstone. In the North Park the thickness is estimated at 1000 feet. S. F. Emmons * found the Triassic in the vicinity of Rawling's Peak, 600 feet in thickness. And in the Uinta Mountains, from 3,700 to 4,000 feet. At its base is a series of clayey beds, having a thickness of 1,200 to 1,500 feet, about equally diyided by a thin but persistent bed of limestone. This is succeeded b}' the Red Bed Group in a thickness of about 2,500 feet, principally of sandstones. In Henry's Fork Basin, which is a narrow valley, extending 15 miles in either direction, east and west from Green river, with a width of about 3 miles, and whose average level is about 300 feet below the cen- ter of the Bridger Basin proper, the Triassic sandstones in Flaming Gorge Ridge, near Green river, are exposed in perpendicular cliffs, about 1,200 feet in height, while having at their base an undetermined thick- ness of clay beds. In Emigration, Parley and Weber Canons, in Utah, the Triassic is exposed from 800 to 1,000 feet in thickness. The Jurassic is also present, and in some places has aiiestimated thickness of 1,500 to 1,800 feet. The Triassic, in the Desatoya and New Pass Mountains of Nevada, contains highly fossiliferous calcareous shales and limestones. In the Pah-Ute Range in the region of Dun Glen Pass, fossils indicating Ju- rassic and Triassic ages are found associated together. The Triassic is represented in the West Humboldt Range, Nevada, in Cottonwood, Buena Vista, Co3'ote, Bloody and Star Canons. Single sections expose strata 1,500 feet or more in thickness. Arnold Hague* estimated the thickness of the Jurassic on the out- lying ridges and foot hills of the Colorado range at 250 feet, down to 50 feet and less. The rocks consist of loose friable sandstones, lime- stones, marls, and impure clays, presenting great variety in color and texture, and passing from one to the other by almost imperceptible '^'Geo. Sur. 40th Parallel. Mesozoic and Ccunozoic Geology and Palcsontology. 233 grades. The lino separating this group from the Triassic is not clearly defined, and the separation therefore is somewhat arbitrary. The group attains its greatest thickness in the region of Big Thomp- son Creek, in Colorado. In W^-oming, along Lodge Pole and Horse Creeks, it is represented by onl}^ about 75 feet of strata. Still farther to the northward it expands again to a thickness of 150 feet. On the Laramie Plains west of Antelope Creek the thickness is estimated at 200 feet. On Como Ridge, in the extreme northwestern corner of the Laramie Plains, just west of the lOCth Meridian, the Jurassic rocks exhibit all the characteristic strata that have been observed in other localities, associated with organic remains, and possessing a thickness of from 175 to 200 feet. Its thickness in the North Park is estimated at from 200 to 250 feet. S. F. Emmons* estimated the average thickness of the Jurassic in the Uinta Mountain Region at from 600 to 800 feet, in which the lime- stones are highly fossiliferous, and have a thickness of 200 or 300 feet, the remainder being made up of sandstones, shales and cla}' beds, re- markable, where well exposed, for their bright, variegated colors. In Henr^-'s Fork Basin, a thickness of 300 to 400 feet is observed in the cliffs overlooking Sheep Creek. In the Montezuma Range, Nevada, the shales have a thickness of between 3,000 and 4,000 feet, and rest directly upon granite. North of Indian Pass, and at Antelope Peak, they reach a development of 4,000 feet. F. B. Meekf described, from the Triassic at Buena Vista Canon, Nevada, Sphoura ivhitneyi, 3Iodiomorpha ovatn, Ilodiomorpha lata, Gymnotooeras rotelliforme, Arcestes peiplanus, A. gabhi, Acrochordi- ceras Jiyatti, Eutomoceras laubei, Eudiscoceras gahbi. Hall and Whitfield, from the Trias of Pah-LTte Range, Nevada, Spirif era alia, Edmondia niyrina. Prof. E. D. Cope,;]: from the Trias at Phoenixville, Pa., Palaeoctonus a2)palachia7ius,-a gigantic carnivorous diuosaurian, P. aulacodus, now Suchoprion aulacodus, Clepsysam'us veatleianus, Suchojjrion cypho- don, Thecodontosaurus g ibbidens ,^ and Palaeosaurus frazeranus^ from Texas, Eryops megacephalas; and from Painted Canon, in Southeast- ern Utah, II Dystrophaeus viasmaloi. -Geo. Sur. 40tli Parallel. tU. S. Geo. Expl., 40th Parallel, vol. 4. t Pal. Bull.. No. 26. I Proe. Am. Phil- Soc. J Wheeler's Sur. W. 100th Mer., vol 4. 234 Cincinnati Society of Natural History. Prof. C. A. White,* from the Jurassic south of Dirt}- Devil river, Utah, Ostrea strigllecula ; from the North Fork of Virgin river, Ino- ceratnus crassalatiis ; and from Camp Cottonwood, Old Mormon Road, Nevada, Jfyophoria amhlllneata. F. B. ]Meek,f from the Jurassic at New Pass, Desato^ya Mountains, Nevada, Lima erecta; from the Weber Canon, Wasatch Range, Pinna kinpi, CucuUcea hagicei, 3Iyacites inconspicuus, Myacltes weberensis^ and from Cottonwood Canon, Belemnites nevadaensls. Hall and Whit- field, from the Jurassic at Flaming Gorge, Uinta Range, Utah, lihyn- chonella 7nyrlna, Lima occidentalism from Chalk Creek, Astarte arenosa, from Shoshone Springs, Augusta Mountains, Nevada, Terebratula angusta, Avicidopecten augustensls, Sejytocardla typica, S. carditoidea, from Wyoming Natica lella, Camptonectes loertenulstrlatus, Trlgonia quadrangularls. Prof. E. D. Cope first suggested that the rocks at Canyon City, Colorado, supposed by Prof. Hayden to belong to the Dakota Group (and also those in the same horizon, 100 miles north, supposed b^- Prof. Marsh to be lower Cretaceous), are Jurassic, and described J Cam- arasaurus supremtis, Compsemys pllcatulus,^ Caulodon diversidens, Tichosteus lucasanus, AmjyhicosHas alf.iis,\\ A. latus, Symphyroplius muscidosus,^ Caulodon leptogamus, Loilaps trihedrodon.** And Prof. O. C. Marshf f described, from the Upper Jurassic rocks on the eastern flank of the Rocky Mountains, Stegosaiirus armatus, Atlantosaurus montanns, Apatosaurus ajax, A. grandis, Allosaurus fragilis, Nanosaurus rex. In 1878, J. F. Whiteaves;};;!; pointed out the Jurassic Age of certain rocks exposed on Iltasyouco river, in British Columbia, and described Pinna siibcancellata, Grammatodon iltasyoucoensis and Trlgonia dawso7ii. Prof. E. D. Cope, from near Canyon Citj^, Colorado,§| Hypsirophus discurus, Brachyrophus altarkansanus, Amphlcotylus lucasi, Tichos- teus aiqulfacies, and Ejjhanterlas amplexus.\\ Prof. 0. C. Marshf ^ described, from the Upper Jurassic of Colo- rado, Atlantosaurus Immanis, Morosaurus Impar, Allosaurus lucaris^ -Wheeler's Sur. W. 100th Mer., vol. 4. t U. S. Geo. Expl. 40th Parallel. t Pal. Bui., No. 25. § Ibid.,^o. 26. || Ibid., No_ 27. H Ibid., No. 28. *••■ Bull. U. S. Geo. Sur. Terr., No. 3. tt Am. Jour. Sci & Arts, 3d ser., vol. 14. U Geo. Sur Can. §? Bull U. S. Geo. Sur., vol. 4. No. 1. Ill Am. Nat., vol. 13. HIT Am. Jour. Sei. & Arts, 3d sor., vol. 15 and IG. Mesozoic and Ccenozoic Geology and Palaiontolony. 235 Creosaurns alrox, Laosaurus celer, L. gracilis, Dryolestes priscus, Pterodactylus montanus. In 1879, Geo. M. Dawson* found on Nicola Lake, in British Colum- bia, a great formation built up almost exclusively of volcanic products, which have frequently a characteristically green color, and hold toward the base beds of gra}', subcrystalline limestone, intermingled in some places with volcanic material, and holding occasional beds of water- rounded detritus, which he regarded as of Triassic Age. Dr. C. A. White described, f from the Jurassic of southeastern Idaho, Terehratula semisimplex, Aviculopecten pealei, A. alius, 3feekoceras aplanafum, 3f. gracilitatis, 31. mushbachanum, and Arcestes cirratus. Prof. O. C. Marsht described, from the Jurassic of the Rocky 3Ioun- tains, Stylacodon gracilis, Ctenacodon serratus, Dryolestes arcuatus, Tinodon robustxis, T. lejiidtis, Brontosaurus excelsus, camptonotns amplus, C. dispar, Cmlurus fragilis, and Stegosaurus ungulatus. And Prof. E. D. Cope§ described, from the Jurassic of Colorado, Camarasaurus leptodirus and ITypsirhopus seeleyanus. Jurassic strata were determined at Cook's Inlet, in Alaska, as early as 1848, and Grewingk described,! from this place, Ammonites wos- nessenski, and identified A. hiplex, JBelemnitella paxillosa, and Unio liasinus. And in 1857, Jurassic strata were determined at Point Wilkie on Prince Patrick Land, far north of British America. It was from this place that Capt. McClintock collected the fossils described by Prof. Haughton^ as Ammonites maccUntocki and 3Ionotis [Avicula) septentrionalis. In taking a general view of the Triassic and Jurassic strata, we see them in the eastern part of the continent consisting of narrow belts, having an immense thickness. The thickness in the Connecticut Val- \ey is but little short of four miles, while in New Jersey it exceeds five miles. Israel C. Russell has argued that the ph3^sical history of these beds, in New Jersey and Connecticut, tends strongly to show that the two areas are the borders of one great estuary deposit, the central por- tion of which was slowly upheaved, and then removed by denudation. That the trap sheets were derived from a reservoir beneath the estuary deposits, and represent in part the force that caused the upheaval. The outburst of trap must have been the closing event of the Triassic changes, and have occurred after the sedimentary beds had been up- =•■ Geo. Sur. Can. t Bull. U. S. Sur., Vol. 5, No. 1. t Am. .Jour. Sei. & Arts, 3cl ser., vol. 18. ? Am. Nat., vol. 13. llVerhandlungen der Russisch-Kaiserlichen mineralogischen Gesellschaft zu St. Petersbourg. H Jour. Roy. Dub. Soc, Ireland. 236 Cincinnati Society of Natural History. heaved and eroded. And that the detached areas, even to North Caro- lina, must have been part of the same estaar}^ formation, now brolien up and separated through the agency of uplieaval and denudation. Much denudation has evidently taken place, which must be added to the enormous thickness which still exists to ascertain the original dimensions of the deposit. All this points to a great depth of the sea, or the bays, as the case may have been, in which the deposits were made. But Avhen we turn to the Triassic and the Jurassic of the West, we observe them extending from Mexico far into British Columbia, and covering hundreds of thousands of square miles. Over extended areas the Triassic is more than a mile in thickness, and superimposed upon it is a great thickness of the Jurassic ; and again the Jurassic is found more than a mile in thickness resting upon the heavy-bedded Triassic strata. The maximum thickness, therefore, of these forma- tions over great tracts of country is more than two miles, and the ques- tions ver}'^ naturally arise, what age do they represent ? Could the deposits have been rapidly made, and therefore represent only a brief space of time, or were they extremely slow and indicative of the lapse of millions of years? Were the deposits made in shallow water, or in the depths of mid-ocean? Is there a deposit now taking place that bears any resemblance to these, and if so, Avhat light if any does it throw upon the subject? And what does palieontolog}', the criterion by which all rocks are to be judged, offer to enlighten us in regard to the secrets of this vast accumulation of detrital material? All deep-sea dredglugs have shown, that at great depths in the At- lantic and Pacific Oceans, there is a deposit of red mud constantly taking place. We think it bears some resemblance to the red sand- stone of the Triassic and Jurassic periods, and in order that a com- parison may the more readily be made, we quote from the most suc- cessful of the many exploring and deep-sea dredging expeditious. Sir C. Wyville Thomson says,* speaking of the first time that the dredge brought up the mud from the bottom of the Atlantic at the depth of 3,600 fathoms: "This haul interested us greatly. It was the deepest by several hundred fathoms which had yet been taken, and, at all events coinci- dently with this great increase in depth, the material of the bottom was totally different from what we had been in the habit of meeting with in the depths of the Atlantic. For a few soundings past, the ooze had been assuming a darker tint, and showed on analysis a continually lessening * Voyage of the Challenger, vol. 1, 1878. Mesozoic and Ca'nozoic Geology and Paloiontoloyy. 237 amouDt of calcareous matter, and, under the microscope, a smaller num- ber of foramiuifera. Now calcareous shells of foraminifera were entirely wanting, and the onl}' organisms which could be detected, after wash- ing over and sifting tlie whole of the mud with the greatest care, were three or four tests of foraminifera of the cristellarian series, made up apparently of particles of the same red mud. The shells and spines of surface animals were almost entirely wanting; and this is the more remarkable, as the clay-mud was excessivel3' fine, remaining for days suspended in the water, looking in color and consistence exactly like chocolate, indicating therefore an almost total absence of movement in the water of the sea where it is being deposited. When at length it settles, it forms a perfectl}' smooth red- brown paste, without the least feeling of grittiuess between the fingers, as if it had been levigated with exti'cme care for a process in some refined art. On analysis it is almost pure clay, a silicate of alumina and the sesquioxide of iron, with a small quantity of manganese." After a great deal of experience in sea dredging, he says: "According to our present experience, the globigerina ooze is limited in the open oceans — such as the Atlantic, the Southern sea, and the Pacific — to water of a certain depth, the extreme limit of the pure characteristic lormation being placed at a depth of somewhere about 2,250 fathoms. " Crossing from these shallower regions occupied b}' the ooze into deeper soundings, we find universally that the calcareous formation gradually passes into, and is finall\' replaced by an extremely fine pure clay, which occupies, speaking generally, all depths below 2,500 fathoms, and consists almost entirely of a silicate of the red oxide of iron and alumina. The clay ic often mixed with other inorganic mat- ter, particularlj" with particles, graduating up to the size of large nod- ules, of peroxide of manganese; and in volcanic regions, or in their neighborhood, with fragments of pumice. The transition is very slow, and extends over several hundred fathoms of increasing depth; the shells gradually lose their sharpness of outline, assume a kind of ' rot- ten' look and a brownish color, and become more and more mixed with a fine amorphous red-brown powder, which increases steadil}'^ in pro- portion until the lime has almost entirelj' disappeared. This brown matter is in the finest possible state of subdivision, so fine that when, after sifting it to separate any organisms it might contain, we put it into jars to settle it remained for days in suspension. " We recognize the gray ooze as, in most cases, an intermediate stage between the globigerina ooze and the red clay; we find that on one 238 Cincinnati Society of Natural History. side, as it wore, of a,n ideal line, the red clay contains more and more of the material of the calcareous ooze, while on the other the ooze is mixed with an increasing proportion of red cla^-. " From Teneriflfe to Sombrero, the depth goes on increasing to a dis- tance of 1,150 miles from Teneriffe, when it reaches 3,150 fathoms ; there the clay is pure and smooth, and contains scarcely a trace of lime. From this great depth the bottom gradually rises; and with de- creasing depth the gray color and the calcareous composition of the ooze return. Three soundings in 2,050, 1,900, and 1,950 fathoms, on the 'Dolphin Rise,' gave highly characteristic examples of the glo- bigerina formation. Passing from the middle plateau of the Atlantic into the western trough, with depths a little over 3,000 fathoms, the red clay returned in all its purity; and our last sounding, in 1,420 fathoms, before reaching Sombrero, restored the globigerina ooze with its peculiar associated fauna. " The distance from Teneriffe to Sombrero is about 2,700 miles. Proceeding from east to west, we have about 80 miles of volcanic mud and sand ; 350 miles of globigerina ooze; 1,050 miles of red clay; and 330 miles of globigerina ooze; 850 miles of red cla^'; and 40 miles of globigerina ooze, giving a total of 1,900 miles of red clay to 720 miles of globigerina ooze. "The nature and origin of this vast deposit of clay is a question of the very greatest interest; and although 1 think there can be no doubt that it is in the main solved, yet some matters of detail are still involved in difficult}'. My first impression was, that it might be the most minuteh' divided material, the ultimate sediment, produced by the disintegration of the laud b}^ rivers, and by the action of the sea on exposed coasts, and held in suspension and distributed \)y ocean cur- rents, and only making itself manifest in places unoccupied by the globigerina ooze. Several circumstances seemed, however, to negative this mode of origin. The formation seemed too uniform; whenever we met with it, it had the same character, and it only varied in composi- tion in containing less or more carbonate of lime. "Again, we were gradually becoming more and more convinced that all the important elements of the globigerina ooze lived on the surface; and it seemed evident that, so long as the conditions on the surface remained the same, no alteration of contour at the bottom could pos- sibly prevent its accumulation; and the surface conditions in the ]Mid- Atlantic were very uniform, a moderate surface current of a ver^y equal temperature passing continuously over elevations and depressions, and everywhere yielding to the tow-net the ooze-forming foraminifera Mesozotc and Ccenozoic Geology and Palceontology. 239 in the same proportion. The Mid-Atlautic swarms with pelagic mol- lusca; and in moderate depths, the shells of tliese are constantly mixed with the globigerina ooze, sometimes in nnmber sufficient to make up a considerable portion of its bulk. It is clear that these shells must fall in equal numbers upon the red clay; but scarcely a trace of one of them is ever brought up by the dredge on the red clay area. It might be possible to explain the absence of shell-secreting animals living on the bottom b}' the supposition that the nature of the deposit was in- jurious to them; but the idea of a current sufficiently strong to sweep them awa}'^, if falling from the surface, is negatived hy the extreme fineness of the sediment which is being laid down. The absence of surface shells appears to be intelligible onl}^ on the uupposition that the^^ are in some waj^ removed by chemical action. "We conclude, therefore, that the red clay is not an additional sub- stance introduced from without, and occup^'ing certain depressed re- gions on account of some law regulating its deposition; but that it is produced by the removal, by some means or other, over these areas, of the carbonate of lime, which forms probably about 98 per cent, of the material of the globigerina ooze. We can trace, indeed, every succes- sive stage in the removal of the carbonate of lime, in descending the slope of the ridge or plateau where the globigerina ooze is forming, to the region of the clay; we find, first, that the shells of pteropods and other raollusca, which are constantly falling on the bottom, are absent; or, if a few remain, they are brittle and yellow, and evidently decaying rapidly. These shells of mollusca decompose more easil}', and disap- pear sooner than the smaller, and apparently more delicate shells of rhizopods. The smaller foraminifera now give wa}', and are found in lessening proportion' to the larger; the coccoliths first lose their thin outer border and then disappear; and the clubs of the rhabdoliths get worn out of shape, and are last seen, under a high power, as minute cylinders scattered over the field. The larger foraminifera are at- tacked, and instead of being vividly white and delicately sculptured, they become brown and worn, and finallj^ they break up, each accord- ing to its fashion: the chamber-walls of G^Zo6/(/erM2a fall into wedge- shaped pieces, which quickly- disappear; and a thick rough crust breaks away from the suiface of Orbidina, leaving a thin inner sphere, at first beautifully transparent, but soon becoming opaque and crumb- ling awa3^ " In the mean time, the proportion of the amorphous, red clay to the calcareous elements of all kinds increases, until the latter disappear, with the exception of a few scattered shells of the larger foraminifera. 240 Cincinnati Society of Natural History. which are still found, even in the most characteristic samples of the red clay. " There seems to be no room left for doubt that the red clay is essen- tiall}' the insoluble residue, the ash, as it were, of the calcareous or- ganisms which form the globigerina ooze after the calcareous matter has been by some means removed. An ordinary mixture of calcareous foraminifera with the shells of pteropods, forming a fair sample of globigerina ooze from near St. Thomas, was carefull}' washed, and sub- jected, bj' Mr. Buchanan, to the action of weak acid; and he found that there remained, after the carbonate of lime had been removed, about one per cent, of a reddish mud, consisting of silica, alumina, and the red oxide of iron. This experiment has been frequently repeated with different samples of globigerina ooze, and always with the result that a small proportion of a red sediment remains, which possesses all the characters of the red clay. I do not for a moment contend that the material of the red clay exists in the form of the silicate of alumina and the peroxide of iron in the shells of living foraminifera and pteropods, or in the hard parts of animals of other classes. That certain inorganic salts other than the salts of lime exist in all animal tissues, soft and hard, in a certain proportion, is undoubted; and I hazard the speculation that during the cleco in position of these tissues in contact with sea water and the sundr}^ matters which it holds in solution and suspension, these salts may pass into the more stable com- pound of which the red clay is composed. " Shortly after the red clay has assumed its most characteristic form, by the total removal of the calcareous shells of the foraminifera, at a depth of say 3,000 fathoms, the deposit in the Pacific Ocean in many cases begins gradually to alter again, by the increasing proportion of the shells of Radiolarians, until, at such extreme depths as 4,575 fath- oms, it has once more assumed the character of an almost purely or- ganic formation — the shells of which it is chiefly composed being, however, in this case siliceous, while in the former the}' were calcareous. The radiolarian ooze, although consisting in great part of the tests of Radiolarians, contains even in its purest condition a very considerable proportion of red clay. While foraminifera are apparently confined to a comparatively superficial belt, Radiolarians exist at all depths in the water of the ocean. "The distribution over the bed of the ocean may be broadly defined thus: the globigerina ooze covers the ridges and the elevated plateaus, and occupies a belt at depths down to 2,000 fathoms round the shores, outside the belt of shore deposits; and the red clay covers the floor of Mesozoic and Ccenozoic Geology and Falceontology. 241 the deep depressions, the eastern, the northwestern, and the south- western basins. An intermediate band of gray ooze occurs in the Atlantic at depths averaging perhaps from 2,100 to 2,300 fathoms. " Over the red-cla}' area, as might have been expected from the mode of formation of the red chi}', the pieces of pumice and the re- cognizable mineral fragments were found in greater abundance; for there deposition takes place much more slowly, and foreign bodies are less readily overwhelmed and masked; so abundant arc such fragments in some places, that the fine amorphous matter, which may be regarded as the ultimate and universal basis of the deposit, appears to be present onh^ in small proportion. " The cla}' which co\'ers, broadly' speaking, the bottom of the sea at depths greater than 2,000 fathoms, Mr. Murray considers to be pro- duced, as we know most other clays to be, b}'^ the decomposition of feldspathic minerals; and 1 now believe that he is in the main right. I can not, however, doubt that were pumice and other volcanic pro- ducts entirely absent, there would still be an impalpable rain over the ocean- floor of the mineral matter, which we know must be set free, and must enter into more stable combinations, through the decomposition of the multitudes of organized beings which swarm in the successive layers of the sea; and I am still inclined to refer to this source a great part of the molecular matter which alwa3^s forms a considerable part of a red- clay microscopic preparation." It is quite clear, that it would require millions of j^ears for an ac- cumulation to take place two miles in thickness, at the progress now in operation in the Atlantic, at depths from three to five miles. And cue can not help thinking that such deposits bear strong resemblance to the red sandstones of the Jurassic and Triassic strata, and conclud- ing, unless there is some reason to be drawn from other sources, to in- fer a more rapid deposition in the formation of the latter strata than that which prevails, at the present time, that one is the representative of the other as to the depth of the ocean and the material and method of the deposit. If this be so, the Triassic and Jurassic rocks represent an age of vastly greater duration than the combined Cretaceous, Tertiar}^ and Post-pliocene periods. PaUeontolog}' may not follow such a comparison all the wa}^ to the final conclusion, but it walks hand in hand so far that we are at a loss to imagine where the separation may be made. There are many classes and orders of animals that never find a tomb in the great depths of the Atlantic, there are others that start for that goal but reach it only in the shape of an impalpable powder, " the insoluble 242 Cincinnati Society of Natural History. residue, the ash as it were of the calcareous organisms." And as to the rest they are sparsely distributed. In this respect the comparison with the Triassic and Jurassic is most favorable, as the rarity of fos- sils in the hands of the collectors very clearly testifies. But when we examine the fossils that have been discovered, and note the evolution of forms, and compare these with the progress in other ages, we are most pi-ofoundly impressed with the immense lapse of time that must be ascribed to these periods. As not a single species that is found in rocks earlier than the Triassic, and not one that is found in rocks more recent than the Jurassic, has ever been found in either the Triassic or Jurassic strata, we are sent at once to the genera for comparison. Let us first turn to the Vegetable Kingdom. It is represented in the Triassic and Jurassic of North America by 66 described species, distributed among 30 genera. Twelve of these genera are also of palaeozoic age, viz.: Calaviites, Chondrites, Cyclop- teris, Dadoxylon, Fucoides, JSTeuropteris, Noeggerathia, Odontopteris, Pecopteris., Sphenopteris, Toeniopteris., and Walchia ; and seven genera are found in the Cretaceous, or more recent strata, viz. : Chon- drites., Equisetum, Neuropteris, Fecopteris, Fterophyllum, Sphenop- teris and Toiniopteris. This shows that five genera only, or one sixth of all that are known, passed through this period, and that during this period 16 genera, or more than half of what are known, came into ex- istence, and also became extinct. The change of forms, as thus indi- cated, is greater than that which has occurred to the Cretaceous flora during all the ages that have elapsed to the present time. The evidence furnished by the invertebrate kingdom is no less strik- ing. Thus far no species belonging to the Annelida or Crustacea, has been described from these rocks, and the only articulated animal- found fossil, so far as I have ascertained, is the 3Iorm ohicoides arti- culatus, described by Prof. Hitchcock, in 1858, — a genus unknown in other rocks. The class Pteropoda and the Rudista are unknown. The class Polypi is not represented by a described species, and the Cavea prisca alone represents the Bryozoa — another genus unknown in other rocks. The Echiuodermata is represented by an Asterias and a Fentaoi- nus, genera unknown in the Palaeozoic age, but one of them passed up into the Cretaceous, and the other into the Tertiary period. The Brachiopoda are represented by eleven species belonging to the genera Lingida, Fhynchonella, Spirifera and Tcrehratula. All of these are Palaeozoic genera, and all of them have continued an exis- Mesozoic and Ccenozoic Geology and Palaiontolo(jy. 243 tence to recent times, except Spirifera, which, so far as known, termi- nated its career in the Jurassic age. The Gasteropoda is represented bj nine species belonging to eight genera. Two of these genera, Dentaliinn and Turbo, had an existence in the Palaeozoic age, and continued to live until the Tertiary period. One genus Tdoplacodes commenced and terminated during the age in question. The other five genera, JSTeriteUa, Neritina, Planorbis, Val- vata and Viviparns are counted among the living Gasteropoda. The Cephalopoda is represented b}- thirty species distributed among seven genera. One, the Nautilus, is a palaeozoic and living genus. Two, Goniatites and Orthoceras, are palaeozoic genera that closed their existence in the Jurassic age. One, Meekoceras, is confined to rocks of the age in question. The other three genera. Ammonites, Belemnites and Ceratites, commenced their existence in the age in question, and terminated their career in the Cretaceous period. The Lamellibranchiata is reiDresented by 125 species distributed among 51 genera. Six genera, Avicula, Cardium, Lima, Ifytilus, Os- trea and Pinna, are reckoned among the palaeozoic and living. Of the other 45 genera, eleven of them are palaeozoic, but only 24 have yet been found in the Cretaceous. 19 of these are Tertiary, and 7 are living, all of which are marine except Unio, which is now a fresh-water genus. Or looking at this most numerously represented class of the Inverte brata in another light, we obserA^e that of the 51 genera represented in the rocks in question, 13 genera, or more than 25 per cent., are still liv- ing. 21 genera had passed away before the Cretaceous period, leaving 30 genera only in the latter period; and consequentl}' only 17 of these genera have expired since the dawn of the Cretaceous. The vast changes in the vertebrate kingdom during this period, and the grand passage from the Batrachia to the IMammalia, evidences the same great laspe of time that is indicated by other organic remain, and inferred from the vast thickness and extensive distribution of the strata. The class Pisces is represented by fifteen species belonging to nine genera. Two of these genera, Amblyptemis and Paloioniscus, are also of Palaeozoic age. The other seven are not represented so far as known in rocks of older or younger age. The class Aves is represented only hy Paloeonornis struthionoides, a bird named by Prof. Emmons, in 1857 — a genus, however, not yet clearly defined or understood. The class Reptilia is represented by 41 genera, none of which are of Palaeozoic age, and only two, Lcelaps and Pterodactylus, are said to 244 Cincinnati Society of Natural History. reach the Cretaceous era. Where tracks have been described new genera in all instances have been proposed. The Mammalia are represented in the Triassic rocks b}- Dromathe- rium silvestre, described by Prof. Emmons, in 1857. Four genera haA'e been named from the Jurassic, viz: Ctenacodon, Dryolestes, Stylacodon and Tinodon. Tiiese genera are not only confined to the rocks in question, but they are not referred to families found in other rocks. Or taken as a whole, the vertebrate kingdom is represented by 57 genera, two of which oal}' are referred to rocks of earlier date, and only two to a later period. These calculations are based upon our present knowledge of the fauna and flora, but as new discoveries are being made almost daily^ we can not tell how much the}' may be modified in future. It will be observed, however, that an increased number of species will not change the calculations, and that an increase of the genera is more likel}' by adding new ones, than by the discovery of either Palneozoic or Creta- ceous genera in these rocks. AmphicoiUas fragillimus was described by Prof. Cope, from near Canyon City, Colorado, in 1878. (See Am. Nat. for August.) Hypsir- hopus seeleyanus should have been referred to the Jurassic of Wyom- ing, instead of Colorado; and Paloioctomis appalachianus, Suchoprion aulacodiis, C'lepsysanrus veatleianus, Suchoprion cyphodon, Thecodon- tosaurus gibbidens^ and PalaiosuuvKs frazeramis should ha\e been re- ferred to York County, Pennsylvania, instead of Phoenixville. We will now pass the Triassic and Jurassic periods for tlie purpose of considering the Cretaceous oi" last period that is referred to Mesozoic age. CRETACEOUS. The existence of the Cretaceous formation, upon this continent, was first determined in the year 1827, when Dr. S. G. Morton and Lardner Vanuxem* compared the marl of New Jersey with the Cretaceous of Europe, called by the French la craie inferieure ou aucienne, and by the English the Green Sand formation or Ferruginous Sand-series. In 1828, Dr. J. E, DeKayf described, from New Jersey, Ammonites hippocrejns, now Scaphites hippocrepis^ and A. placenta^ now Placen- ticeras placenta. [To BE Continued.] * Am. Jour. Sci. ecies. 255 downward at the bending of the lateral lol3es, and were evidently tu- berculated at this point. The}' are strongly grooved. Pygidium — The pygidium is subtriangular, a little wider than long, and the test evidentl}' terminated in a spine. The axis is depressed convex, has eighteen aunulations, and a central row of four tubercles, arranged as follows: commencing at the posterior part, and counting the anuulations forward, a tubercle is found upon the 4tli, 7th, 11th and 14th aunulations. There are six pleura? on each side directed out- ward, and graduall}' curving backward. Each pleura bears a node near the dorsal furrow, and another near the margin. The species is founded upon casts from the magnesian limestone of the Niagara Group, at Joliet, Illinois. This is the first attempt to de- scribe, from American strata, vlvlj fossil in this genus, from an3'^thing like complete specimens. Nearly all the species have been founded upon the pygidia alone. None of the species that have been described, however, bear much resemblance to this one, except Encrinarus orna- ttis, and it is very readily distinguished. The aunulations, the pleurae, and the tubercles are more numerous in the E. ornatus than they are in this species, and the tubercles do not occupv corresponding aunula- tions in the two species. The specimens illustrated are from the magnificent collection of W. C. Egan, Esq., of Chicago, Illinois, in whose honor I take great pleas- ure in proposing the specific name. Cyathocrinus harrisi, n. sp. Plate XV., fig. 2, view of the anterior or azygos side, and part of the column, natural size. Body, cup-shaped, about twice as wide as high, and ornamented b}" de- pressions at the corners of the plates, and rounded or subangular ridges between them. Sub radials, hexagonal, except the one on the azj'gos side which is heptagonal, and a little larger than the others. First radials, wider than high, pentagonal or sub-pentagonal, with the longer side uppermost. The two anterior arms bifurcate on the fourth free arm plate. The facet for the reception of each radial is only about half the breadth, of the upper face of the radial. The plates are slight- \y constricted and rounded in the middle, and much flanged at the upper part, presenting an appearance somewhat similar to a series of small, short spools, piled one upon another, and graduall}^ diminishing in size. Our specimen does not show the second bifurcation of these arms. There is a short, strong pinnule springing from each side of each arm plate above the first bifurcation. Below this, I suppose the 256 Cincinnati Society of Natural History. pinnules were o\\\y long enough to protect the arm furrows, as none of them are visible. The first azygos plate is subquadrangular in outline, and about half the size of the adjoining first radials. It supports a series of plates which are flanged at the upper part, and gradually diminish in size while preserving their length, and also by contracting in the middle become more nearly spool-shaped. Six of these, above the first azygos plate, are shown in our specimen. The column is pentagonal, and for about an inch below the head everj' fourth plate bears five side arms, one springing from the middle of each side, and below this every eighth plate bears the same number. In the distance of two inches there are twenty-five plates bearing these side arms, or 125 side arms in two inches in length of the column. These side arms consist of cylindrical plates, having a length about equal to one half the diameter, and being perforated in the middle. They are so short that there are 100 plates or more in an inch. Sup- posing that these side arms of the column were only an inch in length, we would have 12,500 plates in the arms springing from two inches in length of the column. Many of these side arms were thrown across the head, and upon the arms before the specimen was cleaned, and some of them were doubtless more than an inch in length, and I pre- sume from the appearance of the earth around the specimen, that each of them was more than an inch in length. This species was collected in the Keokuk Group, at Crawfordsville, Indiana, and is from the collection of I. H. Harris, Esq., of Waj'nesville. Ohio, in whose honor I have proposed the specific name. There may be some doubt as to whether or not this species properly belongs to Cyathocrinus, as it does not fall within the limits prescribed for that genus by Wachsmuth and Springer, in their recent work on the '' Revision of the Palffiocrinoidea." PaLtE ASTER CRAWFORDSVILLENSIS, U. Sp, Plate XV., Fig. 3, dorsal view, natural size and magnified view of the madreporiforni plate. The species is founded upon the dorsal view of a single specimen. The rays are longer than the diameter of the body, and not of uniform size. The}^ are flattened or depressed in the middle, as is also the cen- tral part of the body. JMan}^ of the plates possess a central tubercle or small spine, and probably all of them did. The marginal plates are large, somewhat elliptical in outline, and have their shorter diameters in the direction of the length of the ra3^s. Description of Seven New Species. Ihl There are about twelve plates on each side of a raj', and they come together at about the eighth plate from the body, though in the ray opposite the madreporiform tubercle the}'' come together at the seventh. Tile space between the marginal plates of each ray is filled with small- er plates; three of these unite the larger plates at the body, but they diminish in number toward the apex of the raj^, and cease at the eighth plate. In addition to the two large plates which form the j unction of the rays with the body, a few large plates cover the outer part while tlie central part is covered b}' smaller plates. The madreporiform tubercle is supported b}' three plates, two of them are large marginal plates, which form a junction between two rays, and the other is a large plate within, forming part of the covering of the bodv. Collected at Crawfordsville, Indiana, in the Keokuk Group, and now in the collection of I. H. Harris, Esq., of Waynesville, Ohio. Pl.ATrCRINUS BLOOMFIELDENSIS, U. Sp. Plate XV., fig. 4, natural size. Bod}', large, conical at the base, and pentagonal above, with very slight expansion toward the top. Radial plates, longer than wide, which will distinguish this species from any that have been described from rocks of the same age. The cast is slightly convex at the central part of the radial plates, which may indicate that the exterior part of the plates was tuberculiform at this place. Collected by W. C. Egan, in the cherty beds of the Keokuk Group at New Bloomfield, Missouri. CODASTER GRATIOSUS, U. Sp. Plate XV., fig. 5, natural size ; 5a, summit view. Body, small, obconoidal, point of attachment to the column minute, length 0.28 inch, diameter 0.20 inch. Basal plates a little more than one third the length of the specimen ; two of them are hexagonal, and one pentagonal, counting the minute face which joins the column as a, sida The hexagonal plates have a width about equal to their length, the pentagonal plate is longer than wide. The radials are a little longer than wide, the longitudinal sides are nearly parallel; three of them have each two inferior sides, and two of them have each only one inferior side. The upper margin of each plate is excavated for the reception of the ambulacral structure. There is no third range of plates in this species, but a small plate adjoining the anal opening, truncates the corners of the two adjacent radials. 258 Cincinnati Socictij of Natural History. The summit is marked by a central ambulacral opening, an anal opening or moutli close to the margin, and ten marginal supports of the interambulacral areas, one being placed upon each side of the am- bulacral spaces. This species is founded upon an exceedingly perfect and unique cast now in ni}' own collection, but which was found by W". C. Egan? of Chicago, Illinois, in the Cherty beds of the Keokuk Group, at New Bloomfield, Missouri. It is the first species described in America, from rocks of the age of the Keokuk Group. Strotocrinus bloomfieldensis, n. sp. Plate XV., fig. 6, natural size ; 6a, view of the summit of a cast. Body, large, urn-shaped below, and widely spreading at the arms above. Basal plates, wider than long, and about two thirds the size of the first radials. First radial plates large, higher than wide, three of them hexag- onal, and two of them heptagonal. Second radials, not more than half the size of the first, hexagonal, and about as wide as high. Third radials, heptagonal, about as wide as high, a little smaller than the second radials, and supporting upon their superior sloping sides the secondary radials, from the summit of which spring the plates that form the lower part of the spreading canopy, which is not preserved in our specimens. The first interradial plate is almost regularl}' hexagonal, and of the same size as the second radial. It supports upon its superior sloping sides two second interradials, which are a little smaller than the third radials; one of them is pentagonal, and the other hexagonal. These are followed by two third-interradials, which are arranged between the third radials; and these in turn b}' two fourth interradials, arranged between the secondary radials. The first azygos plate is heptagonal, resting upon two basal plates, and between two first radials, and surmounted by three plates, it is not to be distinguished in a basal view from the first radials. It is, however, a little smaller than the first radials. Above these, on the azygos side, the outlines of the plates are not preserved in our speci- mens. The numbei- of arms can not well be determined, but as there are ten secondary radials, and the cast of the openings connecting with the arm furrows, bifurcate within the length of a small plate from these secondai'ies, and again and again bifurcate, so that in our illustrated fragmentary specimen, we have five of these branches from a single Description of Seven ^w Species. 259 HOLOCYSTITES TDRBINATUS, 11. Sp. Plate XV., fig. 7, side view ; 7a, .summit riew. posed of th. 7 "'™'''' ™"8'' '''^'"'^ the pits is com- the .anterior side of the hod, ■ J ", '""'' °' " ''""S" "f P'ates on occurs in all the sneeies „f H arrangement of the plates the bodv- have be n oh.e T """T' "'"' *'" P'"'*^ °' *"^ P-' of illustration of y:i.;t™''"" " '"'"' ^^-«f""y ^ho.o in the ci^iL:™, -7"^; heM";,s"-"^^"°i -"' '^^ ^^-''^"^ ^^^'^ »'• *^^ use of t,e word 'a;'!- , 7!""'" " ""'"'"""^ '^""P"^''* °f ""^ noids. "' "PP'"''' "> 'h<= »^JS<»' plates of the cri- anJu^'CTL^rth ""'?"'"= "'-^ '"'■'<' '" ""-P--^. -^'"e anchy ose^a'^rstnld b^'f " •?""'" ''^"^ '""''^ "'^ *- "-^ 260 Cincinnati Society of Natural History. NOTE UPON THE HABITS OF SOME FOSSIL ANNE- LIDS. By S. A. Miller, Esq. Collectors of any considerable experience, in the rocks at Cincinnati, have not failed to observe that some of the shells, and many of the corals, are pierced by numerous holes, as if eaten through by some burrowing animal. My attention was attracted to this subject several 3^ears ago, and I have spent no small amount of time in endeavoring to solve the mystery, but I had not the slightest conception of the animal that did the work, until last year, when I collected the specimens that enabled me to positively determine the architect. The work done by palaeontologists, in Silurian strata, is confined almost exclusively to the morphological characters of the species, and it is rare, indeed, that one is able to determine the habits of the animals themselves. Hence, this discover}^ may be regarded as of some palfeontological im- portance. During the past summer and fall I collected a great many corals, preserving within these holes, the small, annulated, conical, flexuous tubes, which were called, b\' Nicholson, Ortonia minor. The speci- mens show the meandering courses of the little animals through the corals, sometimes cutting the corallites transversel}', and at other times longitudinally, and retain within the holes the shells of this species. It IS most usual to find the mouth of the shell on or near a level with the polyp cells, but it is found in all other positions in the holes. No doubt can be entertained that this animal bored its way through the coral, and it only remains to determine whether its food was the polyp or the dead calcareous matter. The evidence tends to show that its food was the coral, and not the polyp, but we must delay ofi"ering this evidence until another opportunity, I have elsewhere shown that Ortonia is a synon3'm for Conchicolites, and as the habits now ascertained evidently remove this species from the latter genus, and also from the order Tubicola, we must look else- where to find a home in which to classify it. A re-investigation of all the fossils of Silurian strata, which have been referred to the genera Tentacujites, Cornulites and Conchicolites.^ founded upon additional testimony, must be granted before we shall be able to separate the burrowing from the non-burrowing, or to have any clear ideas of their habits and affinities. voL.n. lljrif f iimom]l0ifitt|]f (irit,fe Jitsltem PI ale 13. s. ■■■■ 4.. ■ \ I: \ ■rim ^ \> ^'^^ 1. ^ '^ 'V? \^A \ \:'^J\ ■^1t ■.6< a KREBi LrTHOtBAPHING C0M»'Ah1 CINCINNATI. PLATE XIII. Fig. 1. ASAPHOIDICHNUS DYERI, n. sp. — View of a specimen, natural size. Figs. 2 and 3. Trachomatichnus numerosus, u. sp.— Casts from the trails of the animal. Fig. 4. The trail itself as made in the sediment, which is now hardened into a rock. Fig. 5. Trachomatichnus permultus, n. sp.— Cast from the trail of the animal. PLATE XIV. Fig. 1. Teratichntjs confertus, n. sp. — View of the trail, natural size. Fig. 2. Petalichnus MTTLTIPARTITUS. n. sp. — View of the cast of the trail, na- tural size. Fig. 3. Trachomatichnus CINCINNATENSIS, n. sp. — View of the east of the trail, natural size. Figs. 4 and 5. ORMATHtCHNUS MONILIFORMIS, n. sp.— Natural size. VOLU ®l^^S«^^^^^^f'%fc^tl^^ Plato 14<. 'I 'V, s-^- t.. ^v VH 3. "■'K r i /#^i 1 .,... - .4"^' a:. >^;*^v^ &^ =-c::Ss-^^' J * 'i •^- /; "■"•^-^ei^^ l"^U: ''-l^SS^g^.. , ..„i,;?«?SR„;-j\ V" KrEBS L1THOGRAPHIN6 COMPAMV,ClNCINNATI. XDL.n. l]l|]eiiimniiiilrf% fc i)M03na Plato 15. ■yguy KREBS llTHOGRAPHING~£oMPANT. ClHCM rLATE XV. Fiji. 1. Enckinurus egani, n. sp. — General view of a specimen having one eye tu- bercle removed. (The backward curving of the articulations upon the lateral lobes is not clearly represented, and the annulalions on the pygidium are not clearly represented, which apparently throAvs the tu- bercles one aunulation too far forward), la. View of the head with the spines removed, and the points of the eye tuber- cles broken off. \b. View of the head from the rear showing the spines. From Joliet, Illinois. , Fig. 2. CYATHOCKiNrs HAKEisi, n. sp. — View of the anterior or azygos side and part of the column, natural size. From Crawfordsville, Indiana. Fig. 3. Pal-SEASTER crawfoedsvilleksis, n. sp. — Dorsal view, natural size, and a magnified view of the madreporiform tubercle. From Crawfordsville, Indiana. Fig. 4. Platyckixus bloomfieldensis, n. sp. — Side view of u cast, natural size. From New Bloonifield, Missouri. Fig. 5. CODASTEE GKATIOSUS, n. sp. — Side view, showing the mouth or anal open- ing. 5a. Summit view of the east. From New Bloomfield, Missouri. Fig. 6. Strotocrinus bloomfieldensis, n. sp.— Side view, natural size. Qa. View of the summit of the same specimen. From New Bloomfield, Missouri. Fig. 7. HOLOCYSTITES TUEBINATUS, n. sp.— Side view, natural size. 7«. View of the summit, with the mouth upon the left side, and the ambulacra! opening upon the right, with a piece of a column or extraneous matter in it. Also showing a fragment upon the lower side of what is supposed to be a piece of an arm. From Osgood, Indiana. P LA TE X ri. Fig. 1. Glyptocrinus kichardsoni— Azygos side. la. Portion of ray of same enlarged, showing fixed piunulse. Dr. Welch's collec- tion. Fig. 2. Cromyocbinus gracilis— Basal view, magnified two diameters. 2a. Azygos side, natural size. 2&. Opposite side, natural size. 2c. View of ventral tube, two diameters. 2d. Inside view of arm with pinuulte, two diameters. 2e, Inside view of arm without pinnulse, two diameters. Fig. 3. Synbathocrinus granuliferus— Azygos side. 3a. Opposite side. Prof. Wetherby's collection. \7>L.n. f liff j«n^liirffbe€m,^t.3^^ liM^m Plato 16. 2 b. f' li '.. /y Ja. - ^ Krebs Lithosraphing CoMP«Nr .Cincinnati. 7-^^7 9. Vol. it. No. 1. THE J O U R N A I ciisrciisrisrATi rr !0f li m lliljj m ! A I PUBLISHING COMMITTEE : J F. JUDGE, A. G. WETHERBY, G. W. HARPER. J. W. HALL. Jr., R. B. MOORE. A.I>IIIL, 1879. CINCINNATI : PRINTED BY JAMES B A R CL.\ Y , 26 9 VINE STREET CONTENTS. Proceedings of the Society 1 Remarks on the Genus Pterotocrinits, by A. G. Wetherby 3 Descriptions of New Genera and Species of Fossils from the Lower Silurian about Cincinnati, by E. O. Ulrich 8 Leperdltia radiata, n. sp 9 Leperditia crepiformis, n. sp 10 Leperdltia unicornis, n. s p 10 Leperditia bivertex, n. sp 11 Beyrichia persulcata, n. sp 12 Cyrtolites nitidulus, n. sp 12 Microceras minutissimum n. sp 13 Cyclora depressa, n. sp 13 Zygospira concentriea, n. sp. 14 Orthis? sectostriata, n. sp 15 Leptaena plicatella, n. sp. 15 Heterocrinus geniculatus, n. sp 16 Dendrocrinus ( ?) curtus, n. sp 18 Paleaster flnei, n. sp. . 19 Lepidolites, n. gen. . . 20 Lepidolites dickhauti, n. sp. . 21 Lepidolites elongatus, n. sp 22 Orthodesma subovale, n, sp 22 Tellinomya cingulata, n. sp 23 Nuculites yoldiaformis, n, sp 24 Pterinea mucronata, n. sp 24 Cleidophorus ellipticus, n. sp. . . 25 Cleidophorus major, n. sp 25 Ropalonaria, nov. gen. 26 Ropalonaria venosa, n. sp. 26 Chajtetes compressus, n. sp 27 Fistulipora flabellata, n. sp 28 Inocaulis arbuscula, n. sp 28 Crateripora, nov. gen . . .29 Crateripora lineata, n. sp* 29 Crateripora lineata, var. expansa 30 Crateripora'erecta, n. sp 30 Remarks upon the Kaskasliia Group, and Descriptions of New Species of Fossils from Pulaski County, Kentuckj', by S. A. Miller 31 Poteriocrinus wetherbyi, n. sp. 36 Eupachycr'nus spartarius, n. sp .38 Eupachj'crinus germanus 40 Lepidesthes formosus, n. sp 41 Catalogue of the Flowering Plants, Ferns and Fungi Growing in th6 Vicinity of Cincinnati, by Joseph F. James 42 Jleviews and Book Notices 68 TEEMS : $2 00 per volume ; single number, 60 cents. &ys^ YOL. II. No. 2. THE JOTJEN AL CTNCIN'ISr^TI r I if! m I u m ill P UBLISHIN G COMMITTE E : A. G. WETHERBY, GEO. W, HARPER, J. W. HALL. Jr., L. M. HOSEA, CHAS. DURY. JULY, 1879 Q-ayr^. §». / S"s?t9 CINCINNATI: PRINTED BY JAMES BARCLAY, 269 VINE STREET. CONTENTS. PAGE, Annual Address of V. T. Chambers, Esq 71 Notes on Some New or Little Known North American Limnseidae, by A. G. Wetherby, A.M 93 Observations on Birds, by Charles Dury and L. K. Freeman 100 Description of Twelve New Fossil Species, and Kemarks upon Others, by S. A. Miller 104 Holocystites tumidus, n. sp 104 Holocystites baculus, n. sp 105 Holocystites rotundus, n. sp 107 Holocystites subrotundus, n. sp 107 Holocystites dyeri, n. sp 108 Holocystites ventricosus, n. sp 108 Anomalocrinus caponiforrais, (Lyon) 109 Trichophycus venosum, n, sp 112 Pisocriluis gemmiformis, n. sp . . 113 Megistocrinus pileatus, n. sp 114 Stephanocrinus osgoodensis, n. sp 116 Paloeaster harrisi, n. sp 117 Lichenocrinus pattersoni, n. sp 118 Terms : $2 00 per volume ; single number, 60 cents. ^u Vol. TI. No. 3. THE JOTJEN AL c T :Nr c I isr N" jv T I n UIJ^ r !i n m \i mm. PVBLISHISG COMMITTEE : A. G. WETHERBY, GEO. W, HARPER, J. W. HALL. Jk., L. M. HOSEA, CHAS. DURY. OCTOBER, 1879. j€^. /^. /s^s^ CINCINNATI: PKINTKD BY JAMES BARCLAY, 269 VINE STREET • > ^ '^ .v\. CONTENTS. Page. Description of a New Genus and some New Species of Bryozoans from the Cincinnati Group, by E. O. Ulrich 119 Description of a Trilobite from the Niagara Group of Indiana, by E, O. Ulrich 131 Descriptions of Nevv Species of Crinoids, from the Kaskiskia Group of the Subcarboniferous, by A. G. Wetherby . . i;J4 North American Mesozoic and Cuenozoic Geology and Palaeontology, by S. A. Miller, Esq 140 List of the Coleoptera Observed in the Vicinity of Cincinnati, by (Charles Dury mi Terms : $2 00 per volume ; single number, 60 cents. "761^ (p ; fy^. f^ f e ^0. Vol. 11. ^o. 4. THE JOURNAL CT]srci]sr:N"ATi nil Of i m Jj ni P UBLISHIN G COM MI T TE E : A. G. WETHERBY, GEO. W, HARPER, J. AV. HALL, Jr., L. lM. HOSEA, CHAS. DURY. J^NU^HY, 1880 CINCINNATI: PRINTED BY J AMES BARCLAY , 269 VINE STREET-. , CONTENTS. PAGE. Descriptions of some New Tineina, with Notes on a few. Old Species, . by V. T. Chambers 179 Three Approximate Solutions of Kepler's Problem, by II. A. Howe, A.M. 205 On the Extra-Meridian Determination of Time, by Means of a Port- able Transit Instrument, by Ormond Stone, A. M 211 Silurian Ichnolites, with Definitions of New Genera and Species, by S.A.Miller 217 North American Mesozoic and C;t!nozoic Geology and Pahcontology, by S. A. Miller 223 Descriptions of New Crinoids from the Cincinnati Group of the Lower Silurian, and the Subcarboniferousof Kentucky, by A. G. Wether- by, A. M : 245 Description of Two New Species from the Niagara Group, and Five from the Keokuk G roup, by S. A. Miller 254 Note upon the Habits of some Fossil Annelids, by S. A. Miller, Esq. 260 Terms : $2 00 per volume ; single number, 60 cents. 3 2044 072 225 451 Date Due %;^£i^^^^Ki'-rj ;^v r\ >.,>>' ^ '^'^" WuithSU