Frank Rattray Lillie
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Cumulated Bibliography of Biographies of Ocean Scientists Deborah Day, Scripps Institution of Oceanography Archives Revised December 3, 2001
Cumulated Bibliography of Biographies of Ocean Scientists Deborah Day, Scripps Institution of Oceanography Archives Revised December 3, 2001. Preface This bibliography attempts to list all substantial autobiographies, biographies, festschrifts and obituaries of prominent oceanographers, marine biologists, fisheries scientists, and other scientists who worked in the marine environment published in journals and books after 1922, the publication date of Herdman’s Founders of Oceanography. The bibliography does not include newspaper obituaries, government documents, or citations to brief entries in general biographical sources. Items are listed alphabetically by author, and then chronologically by date of publication under a legend that includes the full name of the individual, his/her date of birth in European style(day, month in roman numeral, year), followed by his/her place of birth, then his date of death and place of death. Entries are in author-editor style following the Chicago Manual of Style (Chicago and London: University of Chicago Press, 14th ed., 1993). Citations are annotated to list the language if it is not obvious from the text. Annotations will also indicate if the citation includes a list of the scientist’s papers, if there is a relationship between the author of the citation and the scientist, or if the citation is written for a particular audience. This bibliography of biographies of scientists of the sea is based on Jacqueline Carpine-Lancre’s bibliography of biographies first published annually beginning with issue 4 of the History of Oceanography Newsletter (September 1992). It was supplemented by a bibliography maintained by Eric L. Mills and citations in the biographical files of the Archives of the Scripps Institution of Oceanography, UCSD. -
Simplification, Innateness, and the Absorption of Meaning from Context: How Novelty Arises from Gradual Network Evolution
Evol Biol DOI 10.1007/s11692-017-9407-x SYNTHESIS PAPER Simplification, Innateness, and the Absorption of Meaning from Context: How Novelty Arises from Gradual Network Evolution Adi Livnat1 Received: 25 May 2016 / Accepted: 6 January 2017 © The Author(s) 2017. This article is published with open access at Springerlink.com Abstract How does new genetic information arise? Tra- leads to complexity; and that evolution and learning are ditional thinking holds that mutation happens by accident conceptually linked. and then spreads in the population by either natural selec- tion or random genetic drift. There have been at least two Keywords Evolvability · Novelty · Cooption · fundamental conceptual problems with imagining an alter- Parsimony · Gene fusion · Instinct native. First, it seemed that the only alternative is a muta- tion that responds “smartly” to the immediate environment; [C]hange is taking place on many scales at the same but in complex multicellulars, it is hard to imagine how time, and ... it is the interaction among phenomena this could be implemented. Second, if there were mecha- on different scales that must occupy our attention. nisms of mutation that “knew” what genetic changes would —Simon A. Levin (1992). be favored in a given environment, this would have only begged the question of how they acquired that particular knowledge to begin with. This paper offers an alternative 1 Introduction that avoids these problems. It holds that mutational mecha- nisms act on information that is in the genome, based on There have been two main ways of thinking about the considerations of simplicity, parsimony, elegance, etc. nature of mutation and how it allows for adaptive evolution. -
"Woods Hole Marine Biological Laboratory" In
Woods Hole Marine Introductory article Biological Laboratory Article Contents • Introduction Kate MacCord, Marine Biological Laboratory, Woods Hole, Massachusetts, USA Online posting date: 27th April 2018 Jane Maienschein, Arizona State University, Tempe, Arizona, USA The Marine Biological Laboratory (MBL) in Woods remained an independent institution until 2013, when it became Hole, Massachusetts, has had a long history of an affiliate of the University of Chicago. excellence in research and education. An indepen- The local waters off Cape Cod contain a rich biodiversity and dent institution for the first 125 years, it has been have a steady salinity year-round. The large range of organ- an affiliate of the University of Chicago since 2013. isms available was a major factor in the 1870s establishment Internationally acclaimed courses, summer visit- of a research centre for the US Fisheries Commission (Galtsoff, 1962). The nearby Annisquam Laboratory on the shores north of ing researchers and year-round research centres Boston and the Penikese Island School on the nearby Elizabeth make up this vibrant laboratory in a small vil- Islands had provided precedents in introducing students to the lage at the southwestern tip of Cape Cod. Over 50 region’s natural history. These educational and scientific prece- Nobel Prize winners have spent time at the MBL, dents led a board of founding trustees, including Boston-area phi- and the courses have trained the leaders in fields lanthropists and scientists, to choose the small village of Woods such as embryology and physiology. Public lectures, Hole, on the Cape’s southwesternmost point, as the location of a history of biology seminar and the Logan Sci- the newly incorporated MBL (Maienschein, 1985). -
The Biological Bulletin
THE MARINE BIOLOGICAL LABORATORY TWENTY-FIRST REPORT; FOR THE YEAR 1918 THIRTY-FIRST YEAR I. TRUSTEES (AS OF AUGUST, 1918) 345 II. ACT OF INCORPORATION 346 III. BY-LAWS OF THE CORPORATION 347 IV. THE TREASURER'S REPORT 349 V. THE LIBRARIAN'S REPORT 352 VI. THE DIRECTOR'S REPORT 352 Statement 352 1. The Staff 356 2. Investigators and Students 358 3. Tabular View of Attendance 362 4. Subscribing Institutions 363 5. Evening Lectures 364 6. Members of the Corporation 364 I. TRUSTEES EX OFFICIO FRANK R. LILLIE, Director, The University of Chicago. GILMAN A. DREW, Assistant Director, Marine Biological Laboratory. D. BLAKELY HOAR, Treasurer, 161 Devonshire Street, Boston, Mass. GARY N. CALKINS, Clerk of the Corporation, Columbia University. TO SERVE UNTIL IQ22 CORNELIA M. CLAPP, Mount Holyoke College. E. G. CONKLIN, Princeton University. Ross G. HARRISON, Yale University. CAMILLUS G. KIDDER, 27 William Street, New York City. M. M. METCALF. Oberlin, Ohio. WILLIAM PATTEN, Dartmouth College. JACOB REIGHARD, University of Michigan. W. B. SCOTT, Princeton University. TO SERVE UNTIL 192! S. F. CLARKE, Williamstown, Mass. CHARLES A. COOLIDGE, Ames Building, Boston, Mass. 345 346 MARINE BIOLOGICAL LABORATORY. C. R. CRANE, Woods Hole, Mass., President of the Corporation. ALFRED G. MAYOR, Carnegie Institution. C. E. McCLUNG, University of Pennsylvania. T. H. MORGAN, Columbia University. ERWIN F. SMITH, United States Department of Agriculture. E. B. WILSON, Columbia University. TO SERVE UNTIL 1920 H. H. DONALDSON, Wistar Institute of Anatomy and Biology. M. J. GREENMAN, Wistar Institute of Anatomy and Biology. C. W. HARGITT, Syracuse University. H. S. JENNINGS, Johns Hopkins University. -
National Register of Historic Places Inventory - Nomination Form
Theme: "Americans at Work" Form No. 10-300 (Rev. 10-74) subtheme: "Science and Invention" UNITED STATES DEPARTMENT OF THE INTERIOR NATIONAL PARK SERVICE NATIONAL REGISTER OF HISTORIC PLACES INVENTORY - NOMINATION FORM SEE INSTRUCTIONS IN HOW TO COMPLETE NATIONAL REGISTER FORMS ____________TYPE ALL ENTRIES -- COMPLETE APPLICABLE SECTIONS______ I NAME HISTORIC Frank R. Li Hie House_______________________________ AND/OR COMMON Li Hie House LOCATION STREET& NUMBER 5801 Kenwood Avenue _NOT FOR PUBLICATION CITY. TOWN CONGRESSIONAL DISTRICT Chicago __ VICINITY OF STATE CODE COUNTY CODE Illinois 17 Cook 031 CLASSIFICATION CATEGORY OWNERSHIP STATUS PRESENT USE —DISTRICT —PUBLIC —XOCCUPIED —AGRICULTURE —MUSEUM X_BUILDING(S) X.PRIVATE —UNOCCUPIED _COMMERCIAL —PARK —STRUCTURE —BOTH —WORK IN PROGRESS X.EDUCATIONAL —PRIVATE RESIDENCE —SITE PUBLIC ACQUISITION ACCESSIBLE _ENTERTAINMENT —RELIGIOUS —OBJECT _IN PROCESS —XYES: RESTRICTED —GOVERNMENT —SCIENTIFIC —BEING CONSIDERED — YES: UNRESTRICTED —INDUSTRIAL —TRANSPORTATION _NO —MILITARY —OTHER. OWNER OF PROPERTY NAME University of Chicago, John T. Wilson, President STREEF& NUMBER 5801 Ellis Avenue CITY, TOWN STATE Chicago VICINITY OF Illinois 60637 LOCATION OF LEGAL DESCRIPTION COURTHOUSE, REGISTRY OF DEEDS,ETC. Cook County Recorders Office STREETS NUMBER 118 North Clark Street CITY. TOWN STATE Chicago Illinois REPRESENTATION IN EXISTING SURVEYS TITLE None DATE —FEDERAL —STATE —COUNTY —LOCAL DEPOSITORY FOR SURVEY RECORDS CITY. TOWN STATE DESCRIPTION CONDITION CHECK ONE CHECK ONE X.EXCELLENT _DETERIORATED _UNALTERED X.ORIGINAL SITE _GOOD _RUINS X-ALTERED major _MOVED DATE_______ _FAIR _UNEXPOSED interior DESCRIBE THE PRESENT AND ORIGINAL (IF KNOWN) PHYSICAL APPEARANCE The Frank R. Lillie House is located at 5801 Kenwood Avenue on the University of Chicago campus. The house, which was built in 1904, was designed by the Chicago firm of Irving K. -
100 Years Exploring Life, 1888-1988 : the Marine Biological Laboratory at Woods Hole/ Jane Maienschein with Selection and Arrangement of Photographs by Ruth Davis, P
BAY f,HOS B uz^ '^o.% '^S;>> .^ ^'^RBOR TOf 'owsserr MBL TRAFFIC LIGHT BEACH 2 4 1 MARINE BKX-OGICAL LABORATORY SWOPE CENTER ^^. EEL ^6- Jo [POND. v^\§v: QUISSETT CAMPUS #" WCX)DS HOLE i? -10 c? ^v/ ^4 50 ..<^ >' NOBSKA LIGHTHOUSE M\ 1. Marine Biological Laboratory Swope Center 2. NMF Aquarium 3. National Marine Fisheries 4. MBLLoeb 5. MBL Whitman 6. MBLLillie 7. WHOI Bigelow S. WHOI Iselin 9. WHOI Smith 10. WHOI Redfield V4 ^/i MILE Tftc Marine Bio(o^kal Laboratory Directors 1888-1908 CHARLES OTIS WHITMAN 1909-1925 FRANK R. LILLIE 1926-1937 MERKEL H. JACOBS 1938-1949 CHARLES PACKARD 1950-1965 PHILIP B. ARMSTRONG 1966-1969 H. BURR STEINBACH 1970-1975 JAMES EBERT 1976 KEITH PORTER 1977 JAMES EBERT 1978-1986 PAUL GROSS 1987 RICHARD WHITTAKER (Acting Director) 1988 HARLYN O. HALVORSON 100 Years Expiorin^ Life 1888-1988 The Marine Biological Laboratory at Woods Hole x^^V^* """^cj^^^^ 100 Tears ETCpUnin^ Lifc^ 1888-1988 The Marine Biological Laboratory at Woods Hole ft88^l9S^ Jane Maienschein Department of Philosophy Arizona State University Selection and arrangement of photographs by Ruth Davis Archivist, Marine Biological Laboratory qG\C.4^ .-NC^' ^( LIB: Jones and Bartlett Publishers BOSTON Editorial, Sales, and Customer Service Offices Jones and Bartlett Publishers 20 Park Plaza Boston, MA 02116 Copyright © 1989 by Jones and Bartlett Publishers, Inc. All rights reserved. No part of the material protected by this copyright notice may be reproduced or utilized in any form, electronic or mechanical, including photocopying, recording, or by any information storage and retrieval system, without written permission from the copyright owner. -
Ethology and the Origins of Behavioral Endocrinology
Hormones and Behavior 47 (2005) 493–502 www.elsevier.com/locate/yhbeh Historical Review Ethology and the origins of behavioral endocrinology Peter MarlerT Section of Neurobiology, Physiology and Behavior, Animal Communication Lab, University of California, Davis, Davis, CA 95616, USA Received 28 September 2004; revised 30 December 2004; accepted 4 January 2005 Abstract The neurosciences embrace many disciplines, some long established, others of more recent origin. Behavioral endocrinology has only recently been fully acknowledged as a branch of neuroscience, distinctive for the determination of some of its exponents to remain integrative in the face of the many pressures towards reductionism that so dominate modern biology. One of its most characteristic features is a commitment to research at the whole-animal level on the physiological basis of complex behaviors, with a particular but by no means exclusive focus on reproductive behavior in all its aspects. The search for rigorously defined principles of behavioral organization that apply across species and the hormonal and neural mechanisms that sustain them underlies much of the research. Their aims are much like those put forth in the classical ethology of Lorenz and Tinbergen, one of the roots from which behavioral endocrinology has sprung. But there are others that can be traced back a century or more. Antecedents can be found in the work of such pioneers as Jakob von Uexkqll, Jacques Loeb, Herbert Spencer Jennings, and particularly Charles Otis Whitman who launched a tradition that culminated in the classical contributions of Robert Hinde and Daniel Lehrman. William C. Young was another pioneer. His studies revolutionized thinking about the physiological mechanisms by which hormones influence behavior. -
Carl Richard Moore (1892-1955) [1]
Published on The Embryo Project Encyclopedia (https://embryo.asu.edu) Carl Richard Moore (1892-1955) [1] By: Drago, Mary Keywords: Parthenogenesis [2] Carl Richard Moore studied sex hormones [3] in animals in the US from 1916 until his death in 1955. Moore focused on the role of hormones [4] on sex differentiation [5] in animals, the optimal conditions under which males produce sperm [6], and the effects of vasectomy or testicular implants on male sex hormone [7] production. Moore's experiments to create hermaphrodites in the laboratory contributed to the theory of a feedback loop between the pituitary and fetal gonadal hormones [4] to control sex differentiation [5]. Moore showed that the scrotal sac controls the temperature for thet estes [8], which is necessary for sperm [6] production. He also helped distinguish the hormones [4] testosterone and androsterone from testicular extracts. Moore was born on 5 December 1892 to Sara Frances Harris and Jonathan Newton Moore on a farm near Brookline, Missouri. On the farm, Moore learned to hunt and fish [9], and fishing remained a life-long pastime. Moore's family moved to Springfield, Missouri when he was nine years old. There he completed his elementary and secondary education and enrolled in Drury College in Springfield, Missouri as a premedical student. At Drury College, Moore took a biology course with Charles Haddon Spurgeon, who encouraged Moore to study biology and influenced Moore's later teaching methods. Moore graduated in 1913 with a BS degree in biology. Unable to afford medical school, Moore accepted a position as assistant instructor in biology at Drury College for the salary of one hundred dollars per year, where he continued to work and study with Spurgeon. -
Science Across the Pacific: American-Japanese Scientific and Cultural Contacts in the Late Nineteenth Century*
Science Across the Pacific: American-Japanese Scientific and Cultural Contacts in the Late Nineteenth Century* Masao Watanabe** Introduction: the Age of Steam and Electricity The nineteenth century witnessed a remarkable dissemination of science and technology in the Western world and, from the point of view of history of science and technology, may very well be considered the age of steam and electricity. It was in the nineteenth century that the steam engine, already invented and utilized in the eighteenth century, came fully to exhibit its power in promoting the indus trial revolution. It was also in this century that newly invented locomotives and steamships revolutionized means of transportation and spurred oceanic navi gation. Thus steam replaced the labor of man and beast and the power of water and wind, served to step up the production of mining and manufacturing, drew distant areas together, and accelerated economic circulation and cultural exchange. Moreover the cuttings and tunnels required for railway construction revealed a great deal of geological information and furnished new knowledge of the past (particularly of fossils), which led in part to the theory of evolution itself. The discovery of the electric battery by Alessandro Volta in 1799 gave, for the first time, a continuous current of electricity. It facilitated the discoveries of electrolysis, the electric arc, the electro-magnet, the induction coil, the dynamo, and the electric motor. The invention of the electric telegraph and telephone followed. A new era of electricity was thus opened. Effective means of com munication by electricity, of transportation by steam and later by electricity, were developed with great rapidity. -
Charles Otis Whitman (1842-1910) [1]
Published on The Embryo Project Encyclopedia (https://embryo.asu.edu) Charles Otis Whitman (1842-1910) [1] By: Schuermann, D. Brian Keywords: Biography [2] Morphology [3] Laboratories [4] Charles Otis Whitman [5] was an extremely curious and driven researcher who was not content to limit himself to one field of expertise. Among the fields of study to which he made significant contributions were: embryology [6]; morphology [7], or the form of living organisms and the relationships between their structures; natural history [8]; and behavior. Whitman served as director of several programs and institutions, including the Biology Department at the University of Chicago [9], where he helped establish a new style of biology and influenced the work of many researchers of his generation, as well as future ones. He also served as first director of the Marine Biological Laboratory [10] (MBL) in Woods Hole [11], MA. Besides his considerable achievements with his own scientific research, Whitman was a tireless mentor who had many students who went on to achieve great success in the field of embryology [6]. Whitman was born in North Woodstock, Maine, to parents Marcia and Joseph Whitman on 14 December 1842. He grew up on a farm and developed an interest in natural history [8], particularly that of pigeons, at an early age. Whitman’s family was typical of the rural area where he grew up, and he was educated in the public school system, but despite his family’s lack of money he was highly motivated to receive a college education. Whitman earned money by teaching and tutoring in private schools, and in 1865 he began attending Bowdoin College [12] in Brunswick, Maine. -
Edward Sylvester Morse 1838-1925
NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA BIOGRAPHICAL MEMOIRS VOLUME XVII FIRST MEMOIR BIOGRAPHICAL MEMOIR OF EDWARD SYLVESTER MORSE 1838-1925 BY L. O. HOWARD PRESENTED TO THE ACADEMY AT THE ANNUAL MEETING, 1935 EDWARD SYLVESTER MORSE 1838-1925 A Biographical Sketch (With Some Account of His Scientific Activities) BY h. O. HOWARD To those who read this, I owe an apology and an explanation. They will be disappointed. There should be a book about Morse. One will be written some day. But I am limited by the rules of the Academy to six thousand words and I am not competent to do justice to the latter part of his career. 1 must confine myself largely to his scientific life and doings. A man who was elected to the National Academy of Sciences at thirty-eight, and presi- dent of the American Association for the Advancement of Science at forty-eight, must have been a force in American science, and therefore it is that part of his life that a Biographical Memoir for the National Academy of Science must deal with especially. The rest of his useful and remarkable life has been, or will doubtless be, dealt with much more competently by others. Edward Sylvester Morse was the son of Jonathan Kimball and Jane Seymour (Beckett) Morse, and was born at Portland, Maine, June 18, 1838. He married June 18, 1863, Ellen Eliza- beth Owen (1837-1911) of Cape Elizabeth, a little town across the harbor from Portland. Two children were born; Edith (Mrs. Russell Robb of Concord, Mass.) and John G., now of Ripley Hill Road, Concord, Mass. -
Silkworms, Science, and Nation: a Sericultural History of Genetics in Modern Japan
SILKWORMS, SCIENCE, AND NATION: A SERICULTURAL HISTORY OF GENETICS IN MODERN JAPAN A Dissertation Presented to the Faculty of the Graduate School of Cornell University in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy by Lisa Aiko Onaga January 2012 © 2012 Lisa Aiko Onaga SILKWORMS, SCIENCE, AND NATION: A SERICULTURAL HISTORY OF GENETICS IN MODERN JAPAN Lisa Aiko Onaga, Ph.D. Cornell University 2012 This dissertation describes how and why the source of raw silk, the domesticated silkworm (Bombyx mori), emerged as an organism that scientists in Japan researched intensively during the late nineteenth and early twentieth centuries. People invested in and exploited the lucrative silkworm in order to produce a delicate fiber, as well as to help impart universal claims and ideas about the governing patterns of inheritance at a time when uncertainties abounded about the principles of what we today call genetics. Silkworm inheritance studies such as those by scientists Toyama Kametarō (1867– 1918) and Tanaka Yoshimarō (1884–1972) contributed to ideas developing among geneticists internationally about the biological commonalities of different living organisms. Silkworm studies also interacted with the registration of silkworm varieties in and beyond East Asia at a time when the rising Imperial agenda intertwined with the silk industry. Different motivations drove silkworm science, apparent in the growth of Japanese understandings of natural order alongside the scientific pursuits of universality. Tōitsu, a “unification” movement around 1910, notably involved discussions about improving silk and decisions about the use of particular silkworms to generate export-bound Japanese silk. I show why the reasons for classifying silkworms within Japan had as much to do with the connection between textiles, power, and social order as it did with the turn toward experiment-based biological articulations of inheritance, which together interacted with ideas about Japanese nationhood.