Smithsonian Institution and United States National Museum. Annual

Report of the Board of Regents to July, 1896. Pp. 727.--Bean, Barton

A. Notes on a Collection of Fishes from Mexico, etc. Pp. 4.--Cook, O.

F. American Oniscoid Diploda, etc. Pp. 16, with plates.--Coquillet, D.

W. Report on Japanese Diptera. Pp. 36.--Enkle, Arthur. Topaz Crystals

in the Mineral Collection of the Museum. Pp. 10.--Gilbert, C. N.

Caulolepis Longidens, Gill, on the Coast of California. P. 1.--Jordan,

David Starr, and Evermann, Barton D. The Fishes of North and Middle

America. Part III. Pp. 978.--Marlatt, C. L. Japanese Hymenoptera of

the Family Teuthredonidæ. Pp. 16.--Mearns, Edgar A. Mammals of the

Catskill Mountains. Pp. 20.--Moore, J. Percy. The Leeches of the

United States National Museum. Pp. 20, with plates.--Oberholser, Harry

C. Revision of the Wrens of the Genus Thryomanes, Sclater. Pp.

30.--Rathbun, Mary J. Brachyura Collected by the Steamer Albatross

between Norfolk, Va., and San Francisco. Pp. 50, with plate; and

Fresh-Water Crabs of America. Pp. 30.--Smith, Hugh M. Amphiura, or the

Congo Snake, in Virginia. P. 1.--Smith, John B., and Dyar, Harrison G.

The Lepidopterous Family Noctuidæ of Boreal North America, etc. Pp.

194, with plates.--Starks, Edwin C. Osteology and Relationships of the

Family Zeidæ. Pp. 8, with plates.--Stearns, Robert E. C. A Species of

Actæon from the Quaternary Deposits of Spanish Height, San Diego, Cal.

Pp. 3; and Cythera (Tivala) Crassateloides, Conrad, etc. Pp. 8, with

plate.--Stejneger, Leonhard. A New Species of Spiny-tailed Iguana from

California. P. 1.--Test, Frederick C. Variations of the Tree Frog,

Hyla Regilla. Pp. 16, with plate.--True, Frederick W. Nomenclature of

the Whalebone Whales, etc. Pp. 20.--Walcott, C. D. Cambrian

Brachiopoda, Obolus, and Singulella, etc. Pp. 36.

Sue, Eugène. The Silver Cross, or the Carpenter of Nazareth. New York:

International Publishing Company. Pp. 151.

Sullivan, Christine Gordon. Elements of Perspective. American Book

Company. Pp. 96.

Terrestrial Magnetism. An International Quarterly Journal. L. A. Bauer

and Thomas French, Jr., Editors. University of Cincinnati. Pp. 46,

with plates. 60 cents. $2 a year.

Vines, Sidney H. An Elementary Text-Book of Botany. New York: The

Macmillan Company. Pp. 611. $2.25.

Volta Bureau, Washington, Publications of Catalogue of Books by Prof.

A. Melville Bell.--Some Differences in the Education of the Deaf and

the Hearing. Pp. 15.--International Reports of Schools for the Deaf.

Pp. 27.--Bell, A. G. Methods of Instructing the Deaf in the United

States. Pp. 4.--Gordon, J. C. The Difference between the Two Systems

of Teaching Deaf-mutes the English Language. Pp. 4.--Gilman, Arthur.

Miss Helen Adams Keller's First Year of College Preparatory Work. Pp.

14.--Bell, Mabel Gardiner. The Story of the Rise of the Oral Method in

America as told in the Writings of the Hon. Gardiner G. Hubbard. Pp.

50.

Voorhees, Edward B. Fertilizers. New York: The Macmillan Company. Pp.

335. $1.

Wadden Turner, Susan, Prof. William, and Jane. In Memoriam. By

Caroline H. Dall. Pp. 19.

Weysse, Arthur W. An Epitome of Human Histology. New York: Longmans,

Green & Co. Pp. 90. $1.50.

Fragments of Science.

=The Huxley Lecture.=--The Charing Cross Medical School in London,

which had the good fortune some fifty-three years ago to number Huxley

among its pupils, had largely through this fact the honor of being

addressed on October 3d by Professor Virchow, the greatest living

pathologist and one of the greatest of living scientists. There was a

peculiar fitness in his delivering the Huxley lecture, for, while

Professor Virchow's work has been chiefly that of the specialist, his

co-operation with laborers in other fields, his continued efforts to

popularize science, and the prominent position which he has occupied

for the last thirty years in public life, have given him a standing in

Germany somewhat akin to that of Huxley in England. His career is a

striking illustration, as was also Huxley's, of the happy results to

humanity from a combination in one man of great ability as an

investigator with a facility for generalization and the practical

application of scientific truths to the concrete problems of science

and civilization. Professor Virchow is described as modest and

unassuming, and very much of a contrast in all ways to the ordinary

German professor. His address was on The Recent Advances in Science,

and their Bearing on Medicine and Surgery. It was inevitable that he

should refer to Huxley, of whom he was in some sense a pupil. In

speaking of the rapid growth of the latter during his four years on

the Beagle, he said: "How this was possible any one will readily

understand who knows from his own experience how great is the value of

personal observation.... Freed from the formalism of the schools,

thrown upon his own intellect, compelled to test each single object as

regards properties and history, we soon forget the dogmas of the

prevailing system, and become first a skeptic and then an

investigator." This paragraph is especially worthy of notice, because

it points out one of the invariable characteristics of the great man.

In whatever field his greatness may lie, he will be found to have

broken away from the formalism and conservatism of the schools, and

that his great work is based on personal observation and research.

This was notably the case with Professor Virchow's establishment of

the cellular pathology, as well as of Huxley's researches in

comparative anatomy. Our present school system is lamentably weak in

this particular, tending to stifle rather than stimulate originality

and self-dependence. Professor Virchow's address was, of course,

interesting and instructive, but, as he said, much too short for

anything like an adequate treatment of the subject. The chief interest

of the occasion lay in its associations. An address by Rudolph

Virchow, at a meeting presided over by Lord Lister on an occasion

commemorating Professor Huxley, left only one thing to be desired--the

presence of the latter. For a biologist, or in fact a modern scientist

of any description, one can not imagine a more delightful occasion.

=The Climate of Cuba.=--Systematic records of weather appear to be

wanting in Cuba. The meteorological observations kept up for several

years by Andre Poey are not accessible, no need of their being

published having been found. The chief source of information on the

subject is the observations which have been kept up at Belen College,

Havana, since 1859. From these and a few scattered observations of

brief periods at other towns, and by comparison with notes taken at

other West Indian stations, W. F. B. Phillips, of the United States

Department of Agriculture, has attempted to describe the climate of

Cuba. The average annual temperature of the past ten years at Havana

was 77° F., and the difference between the highest and the lowest

yearly means was only 1.1° F. The warmest month is July, with an

average temperature of 82.7° F., and the coldest is January, with an

average temperature of 70.3° F. The highest temperature recorded was

100.6° F., in July, 1891, and the lowest 49.6°. Brief intermittent

records at Matanzas, more than sixty years old, give a mean annual

temperature of about 78°, with 93° as the highest and 51° as the

lowest. At Santiago the annual mean appears to be about 80°, and the

difference between the warmest and coldest months about 6° F. Records

of temperature in the interior, such as they are, give annual means of

from 73.6° to 75°, apparently showing lower temperatures than on the

coast. The average daily range of temperature is about 10°, the

highest occurring between noon and two o'clock P. M., while sudden

variations in the temperature of the day are not unknown. The average

yearly rainfall at Havana is about fifty-two inches. The season of

heavy rainfall begins in the latter part of May and first of June, and

lasts till October, and during this period about sixty-three per cent

of the year's rain is precipitated. Rain occurs on about one day in

three, in heavy downpours of short duration. Notwithstanding the

frequency of rain during the summer months, these do not present the

greatest number of cloudy days. The days on which rain does not fall

are usually perfectly cloudless, and, in general, no clouds are seen

in summer except while the showers are falling; while in other months

cloudy days sometimes occur without rain. The average velocity of the

wind is about 7.5 miles an hour, with variations, according to the

season, from 8.5 miles in winter to 6.5 miles in summer. The diurnal

variation in wind velocity is much more pronounced than the seasonal

variation.

=The New Planet D Q.=--The number of minor planets discovered during

the last few years, and their lack of practical importance in

astronomy, has tended to distract astronomers' attention from the

search for them, as unprofitable, and the announcement of a new one

attracts little attention, as a rule. The planet D Q, however,

discovered by Herr Witt, of the Urania Observatory, of Berlin, on

August 13th last, has aroused from the first special attention through

its remarkable behavior. The orbit is a very unusual one. Mars has

always been considered our nearest neighbor, although it was known

that some of the minor planets were slightly nearer to the sun when at

perihelion than Mars is when at aphelion. But the mean distances of

the latter were in all cases much greater than that of Mars; while

that found for the new planet is only 1.46 as compared with 1.52 for

Mars, and, as the eccentricity amounts to 0.23, the perihelion

distance is only 1.13, and the least distance from the earth's orbit

only 0.15 as compared with 0.27 for Venus in transit, and 0.38 for

Mars in perihelion. The planet will thus be far closer to us than any

other member of the solar system, and will afford a most excellent

means of determining the sun's parallax. Its diameter is thought to be

about seventeen miles.

=Extra-Organic Factors of Evolution.=--Observing that our civilization

has made advances or "strides" in recent years out of all proportion

to any improvements that have taken place in our organic faculties,

Arthur Allin has insisted, in Science, on the importance of

extra-organic factors in human development. Our sense and motor

organs, he says, are essentially instruments and tools, and so is the

brain; and most if not all of the three hundred or more mechanical

movements known in the arts are found exemplified in the human body.

Our sense organs are thus indefinitely multiplied and extended by such

extra-organic sense organs as the microscope, telescope, resonator,

telephone, telegraph, thermometer, etc. Our motor organs are

multiplied by such agencies as steam and electrical machines, etc., in

the same manner. "The printing press is an extra-organic memory far

more lasting and durable than the plastic but fickle brain. Fire

provides man with a second digestive apparatus by means of which hard

and stringy roots and other materials for food are rendered digestible

and poisonous roots and herbs innocuous. Tools, traps, weapons, etc.,

are but extensions of bodily contrivances. Clothing, unlike the fur or

layer of blubber of the lower animals, becomes a part of the organism

at will. One finds himself more or less independent of seasons,

climates, and geographical restrictions." By organic heredity or the

transmission of the congenital characteristics of the parents to the

children, working alone, all progress depends upon the transmission of

variations occurring within the organism. "Moreover, these

advantageous organic variations die with the individual, and must be

born again, so to speak, with each new individual." This requires

time, and progress depending on it would be indefinitely protracted.

On the other hand, by means of social heredity, each new member of the

race has handed to him at birth the accumulated organic advantageous

variations of sense and motor organs, and the extra-organic

adaptations that have multiplied so indefinitely in the age of

civilized man. "The vast importance of accumulation of capital is

obvious."

=Fossils as criterions of Geological Ages.=--Prof. O. C. Marsh said in

a paper on The Comparative Value of Different Kinds of Fossils in

determining Geological Age, which was read at the meeting of the

British Association, that the value of all fossils as evidence of

geological age depends mainly upon their degree of specialization. In

invertebrates, for example, a lingula from the Cambrian has reached a

definite point of development from some earlier ancestor. One from the

Silurian or Devonian, or even a later formation, shows, however,

little advance. Even recent forms of the same or an allied genus have

no distinctive characters sufficiently important to mark geological

horizons. With ammonites the case is entirely different. From the

earliest appearance of the family the members were constantly

changing. The trilobites show a group of invertebrates ever subject to

modification, from the earliest known forms in the Cambrian to the

last survivors in the Permian. They are thus especially fitted to aid

the geologist, as each has distinctive features and an abiding place

of its own in geological time. In the fresh-water forms of

mollusca--the Unios, for example--there is little evidence of change

from the palæozoic forms to those still living, and we can therefore

expect little assistance from them in noticing the succeeding periods

during their life history. The same law as to specialization holds

good among the fossil vertebrates.

=Pedigree Photographs.=--Sir Francis Galton unfolded before the

British Association a plan for the systematic collection of

photographs of pedigree stock, particularly of cattle breeds, and of

more information about them than is now obtainable. He believes that a

system of this sort would greatly facilitate the study of heredity.

The author had previously shown how the general knowledge that

offspring can inherit peculiarities from their ancestry as well as

from their parents was superseded by a general law the nature of which

was first suggested to him by theoretical considerations, and this

ancestral law proves the importance of a much more comprehensive

system of records than now exists. The breeder should be able to

compare the records of all the near ancestry of the animals he

proposes to mate in respect to the qualities in which he is

interested. No present source for such information is comparable with

what the system proposed would furnish. A habitual study of the form

of each pure-bred animal in connection with the portraits of all its

nearest ancestry would test current opinions and decide between

conflicting ones, and could not fail to suggest new ideas. Likenesses

would be traced to prepotent ancestors, and the amount of their

several prepotencies would be defined; forms and features that

supplement one another or "nick in," and others that clash or combine

awkwardly, would be observed and recorded; and conclusions based on

incomplete and inaccurate memories of ancestry would give way to

others founded on more exact data. The value of the ancestral law

would be adequately tested, and it would be possible to amend it when

required.

=English Names for Plants.=--In the Proceedings of the Torrey

Botanical Club, published in its journal for July, Dr. V. Havard

suggested some principles which it would be well to follow in applying

English names to plants, predicating that an authorized vernacular

binomial should be assigned to each plant, so that ambiguity and

confusion may be avoided. In the absence of suitable English names

already recognized, it seems best to adopt the Latin genus name, if

short and easy, like _Cicuta_, _Parnassia_, _Hibiscus_, or a close

translation thereof, when possible, like astragal, chenopody,

cardamin, while the specific English name should be an equivalent of

the Latin one or a descriptive adjective. In case of all English

binomials clearly applying to well-known individual species and no

others, all substantives are capitalized without a hyphen, as in Witch

Hazel, May Apple, and Dutchman's Pipe. In all genera in which two or

more species must be designated, the genus name is compounded into one

word without a hyphen, as Peppergrass, Sweetbrier, Goldenrod,

Hedgenettle, etc.; except in long names, where the eye requires the

hyphen, as Prairie-clover, Forget-me-not. Genus names in the

possessive case (St. John's-wort) are written with the hyphen,

followed by a lower-case initial. Plants commemorating individual men

(Douglas Spruce, Coulter Pine) are written without the mark of the

possessive. In specific names participial endings are suppressed, the

participle becoming a substantive, which is added as a suffix without

the hyphen; thus Heartleaved Willow is changed to Heartleaf Willow. In

the discussion that followed this paper, President Addison Brown and

Dr. T. F. Allen deprecated the manufacture of book names. The

secretary defended the use of vernacular names, saying that they

deserved more attention, and adding that in their absence the generic

name should be used unchanged. Many Latin names, as _Portulacca_, win

their way without change as soon as they are fairly made familiar.

"Coined names seldom live. A name to be successful must be a growth,

as language is."

=Cooking Schools in Philadelphia.=--The establishment of schools in

Philadelphia for the teaching of cookery is mentioned, in the Annual

Report of the Superintendent of Public Schools in that city, among the

results of the general movement for manual training, as a means of

mental development and practical knowledge. The teaching was

introduced experimentally into the Girls' Normal School in 1887, and

was in the following year made a regular branch of the course. It was

later extended to other schools. There are now eight school kitchens

under the department of Public Instruction, situated in different

parts of the city. The question of the proper place for cookery in the

school course has been solved, for Philadelphia, by putting it in the

sixth school year, when the pupils are firmly established in the work

of the grammar grades, and their attention has not yet been directed

to preparation for admission to the High School. The course provides

between twenty-five and thirty lessons, and is completed in a single

year. It includes instruction in the care of the kitchen, and of the

stove or range, general lessons in the classification and nutritive

values of foods, the cooking of vegetables, breakfast cereals, bread,

eggs, soups, meats, simple cakes and desserts, lessons in invalid

cookery, and in table setting and serving. Special attention is given

to the preparation of nutritious and savory dishes from inexpensive

materials. About two thousand pupils, or less than one half of the

number of girls of the sixth year now in the schools, are accommodated

in the eight cookery schools. The pupils manifest an intelligent

interest in the instruction, and spend the half day per week in the

school kitchen without any appreciable loss in the other branches of

study. "It comes as a period of relaxation."

=A Trait Common to us All.=--The doctrine of the tendency of mankind

to develop the like fancies and ideas at the like stage of

intellectual infancy was mentioned by Mr. E. W. Brabrook in his

presidential address before the Anthropological Section of the British

Association, as a generalization for which we are fast accumulating

material in folklore. It is akin to the generalization that individual

savage races present in their intellectual development a marked

analogy to the condition of the earlier races of mankind. The fancies

and ideas of the child resemble closely the fancies and ideas of the

savage and the fancies and ideas of primitive man. Mrs. Gomme has

found that a great number of children's games consist of dramatic

representations of marriage by capture and marriage by purchase, and

that the idea of exogamy is distinctly embodied in them. There can be

little doubt that they go back to a high antiquity, and there is much

probability that they are founded upon customs actually existing, or

just passing away, at the time they were first played. Upon the same

principle, if we view children's stories in their wealth of details,

we shall deem it impossible that they could have been disseminated

over the world otherwise than by actual contact of the several peoples

with each other. But if we view them in their simplicity of idea, we

shall be more apt to think that the mind of man naturally produces the

same result under like circumstances, and that it is not necessary to

postulate any communication between the peoples to account for their

identity. It does not surprise us that the same complicated physical

operations should be performed by far-distant peoples without any

communication with each other; why should it be surprising that mental

operations, not nearly so complex, should be produced in the same

order by different peoples without any such communication?

=The Toes in Walking.=--An instructive discussion of the walking value

of the lesser toes by Dr. Heather Bigg is given in a recent copy of

the London Lancet. Dr. Bigg believes that the lesser toes of the human

foot are of little importance in walking--the great toe constituting

the important tread of the foot--and in proof of this he gives an

account of a patient, all of whose lesser toes it was found necessary

to amputate because of persistent contraction of the tendons. On

November 10, 1894, the toes were removed, especial care being taken to

keep the resulting scars well up on the dorsal aspect of the foot, so

as to be well away from the subsequent tread. In three weeks the

patient could stand on her feet, and, after her return home, sent the

following record of her progress toward complete recovery: December

30, 1894: "I am able to walk perfectly on my feet with little or no

pain, but can not yet wear either slippers or boots, as they are still

tender."--January 15, 1895: "I managed to get on my slippers yesterday

and wore them with ease for more than six hours."--January 28th: "I

put on my boots to-day for the first time. It still pains me slightly

to walk; otherwise my feet are going on all right."--February 18th: "I

ought to say that the steel plates only half way answer

splendidly."--March 24th: "You will be glad to hear that I can walk

splendidly now, just like a proper human being; it is just eighteen

weeks next Tuesday since the operation."--May 5th: "I have decided to

come to town next Monday week to let you see how well I can

walk."--June 17th: "I played two sets of tennis on Saturday, and my

feet were none the worse afterward."--July 24th: "You will be

surprised to hear that the big toes have lengthened half an inch since

the operation, and I have had all my boots lengthened and the toe line

made straighter."--August 30th: "I know that you will be interested to

hear that I have just accepted an invitation to a dance on September

13th. Whether I shall dance comfortably or not is another

thing."--September 14th: "I went to the dance on Tuesday evening and

thoroughly enjoyed myself after not dancing for so long. My feet were

on their best behavior, and did not pain me once during the evening. I

never realized before that I had no toes until I began to dance; then

it seemed so odd only to have one toe, but I suffered no inconvenience

whatever from the loss of them."--December 5th: "I get on so well with

my bicycle." Only two disadvantages showed themselves as the result of

the operation and these were temporary. One was that the great toes

tended to pervert themselves toward the middle line of the feet, a

thing which was readily remedied by the use of single-toed stockings,

and by packing the space in the boot left vacant by the missing toes

with cotton wool; the other was a loss of local sense on the outer

sides of the feet, which went to show that the lesser toes were missed

rather as tactile organs than anything else. This failure of feeling

righted itself in time, presumably by a vicarious and intenser sense

being acquired by the skin of the outer side of the foot. In all other

respects the loss of the toes discovered no inconvenience.

Appletons' Popular Science Monthly, January 1899 Volume LIV, No. 3, January 1899 · 第 16 / 17 段