Ed 306 128 Author Title Institution Report No Pub

Total Page:16

File Type:pdf, Size:1020Kb

Ed 306 128 Author Title Institution Report No Pub DOCUMENT RESUME ED 306 128 SE 050 533 AUTHOR Brandwein, Paul F., Ed.; Passow, A. Harry, Ed. TITLE Gifted Young in Science: Potential through Performance. INSTITUTION National Science Teachers Association, Washington, D.C. REPORT NO ISBN-0-87355-076-5 PUB DATE 88 NOTE 407p. AVAILABLE FROMNational Science Teachers Association, 1742 Connecticut Av 'Ile, NW, Washington, DC 20009 ($24.00 hardcover ISBN-0-87355-076-5; $17.00 softcover). PUB TYPE Information Analyses (070) -- Reports - Descriptive (141) -- Books (010) EDRS PRICE MFO1 Plus Postage. PC Not Available from EDRS. DESCRIPTORS *Academically Gifted; Curriculum Development; *Elementary School Science; Elementary Secondary Education; Futures (of Society); Problem Solving; Science Curriculum; *Science Instruction; *Science Programs; *Secondary School Science; Teaching Methods; Unified Studies Curriculum ABSTRACT Thirty-four authors have joined to prcduce this book. Among them are natural and physical scientists, psychologists, historians, writers, scholars of curriculum and instruction, teacher educators, and teachers of the young. The contributors probe many methodologies including the place of unified concepts and processes; the interaction of the certainties of problem doing with the uncertainties of problem-solving; the hands-on approaches coupled with the brains-on ones, as well as the much needed hands-off ones. Thus, the tools of the student are strengthened with the hard-won tools of the scientist. The heart of this book opens a variety of opportunities to all who wish to help others press on with the arts of scientific investigation. Major areas of study include: how science for the gifted should be taught for the future; the purpose and principles of teaching the gifted in science; basis for planning curriculum and instruction; and personal reflections on teaching the gifted. The bibliography is structured into four parts: (1) general works (early and current studies); (2) traits of gifted individuals; (3) programs (strategies, tactics, and needed research); and (4) journals and publications of selected associations. (MVL) Reproductions supplied by EDRS are the best that can be made * from the original document. Gifted Young in Science Potential Through Performance Paul F. Brandwein A. Harry Passow Editors Deborah C. Fort Gerald Skoog Association Editor Contributing Editc. Part IV NATIONAL SCIENCE TEACHERS ASSOCIATION WASHINGTON, D.C. J Copyright e 1988 by the National Science Teachers Association, Washington, D C All rights reserved. This vclume may not be reproduced in whole or in part in any form without written permission from the publisher Requests for permission should be ad- dressed to the special publications department (address below) This book has been produced by Special Publications, the National Science Teachers Association. 1742 Connecticut Avenue, N. W, Washington, D C . 20009 Phyllis R Marcuccio. Director of Publications, Shirley L Watt, Managing Editor of Special Publications. Library of Congress Catalog Card N'imber 88-63846 ISBN Number 0-87355-076-5 Printed in the United States of America First edition Contents Invitation to Our Readers ix Part I By Way of Beginning Seeding Destiny in an Open Society Paul F. Brandwein 3 Part II Purpose and Principles 1.The Educating and Schooling of theCommunity of Artisans in Science A. Harry Passow 27 2.Probing Giftedness/Talent/Creativity: Promise and Fulfillment Abraham J. Tannenbaum 39 3.Recognizing and Fostering Multiple Talents Reflections on Yesterday's Achievements and Suggestions for Tomorrow Calvin W. Taylor, Robert L. Ellison 57 4. Science Talent.In an Ecology of Achievement Paul F. Brandwein 73 5. The Unique andthe Commonplace in Art and in Science Gunther S. Stent 105 v 0 Part III Programs: Certain Bases for Planning Curriculum and Instruction 6. The Early Environment of the Child: Experience iv. a Continuing Search for Meaning Annemarie Roeper 121 7. The Gifted in Middle School Science Steven J. Rakow 141 8. Equality, Equity, Entity: Opening Science's Gifts for Childrei. Bill G. Aldridge. Deborah C. Fort 155 9. Science CentersAn Essential Support System for Teaching Science Sid Sitkoff 179 10. Avenues to Opportunity for Self-Identified, High-Ability Secondary School Science Students Sigmund Abeles 189 1 1.North Carolina School of Science and Mathematics: The Special Environment Within a Statewide Science High School Charles R. Eilber, Stephen J. Warshaw 201 1 2. A Program for Stimulating Creativity ina Citywide High School: The Bronx High School of Science Milton Kopelman, Vincent G. Galasso, Madeline Schmuckler 209 13. Problems in the Development of Programs and Science Curriculums for Students Gifted/Talented in Areas Other Than Science Irving S. Sato 217 vi 14. School, University,Laboratory, and Museum Cooperation in Identifying and Nurturing Potential Scientists A. Harry Passow 245 15.Identifying and Nurturing Future Scientists in Other Nations Pinchas Tamir 255 16. Apprenticeshipto Well-Ordered Empiricism: Teaching Arts of Investigation in Science Paul F. Brandwein, Evelyn Morholt, Sigmund Abe les 273 17. The Role of Content and Processin the Education of Science Teachers Joseph D. Novak 307 18. Cooperative Learning and the GiftedScience Student Roger TJohnson, David W Johnson 321 19. Necessary Writing in the Sciences Robert A.Day 331 Part IV Personal Reflections: From Gifts to Talents Dear Mr. Asimov... Dear NSTA Isaac Asimov 341 Still in My Dinosaur Phase Stephen Jay Gould 349 A Tribute to My Mentors Joshua Lederberg 353 vii I Ways of Being Rational Lorraine J. Daston 359 Today's Jacks, Tomorrow's Giants Francis J. Heyden, S. J. 363 Intimate Evolution of a Nature Lover Lynn Margulis 367 From Gifts to Talents Through General Science Robert A. Rice 371 Lessons I Have Learned Gerald Skoog 375 Letter to a Young Scientist Glenn T Seaborg 379 Part V Bibliography Evelyn Morholt, Linda Crow 385 Part VI Biographical Notes on Contributors 413 s,J viii Invitation to Our Readers We bring you this book at a critical time. Indeed, the world is gathering up its resources to face new, great, unpredictable changes. Thirty-four authors have joined to bring you this book; among them are natural and physical scientists, psychologists, historians, writers, scholars of curriculum and instruction, teachers of teachers, and teachers of the young. All have turned their scholarship, practical experience, and wisdom to probe the manner and mode by which elementary and high school students gifted in science could find opportunities to turn their intellectual resources and dispositions to contributions in science and technology. The contributors probe many methodologiesamong them, the place of unified concepts and processes; the interaction of the certainties of problem doing with the uncertainties of problem solving; the "hands-on" approaches coupled with the "brains-on" ones, as well as the much needed "hands-off" ones. Thus, the tools of the student are strengthened with the hard-won tools of the scientist. In short, the heart of this book opens a variety of opportuni- ties to all who wish to help others press on with the arts of scientific investiga- tion. Clearly, all of us in the postindustrial era are now bound to a time in which science and technology will more than ever affect cultures, nations, societies, and personal lives. Yet the coming years, in spite of the uncertainties they bring, also offer great promise to the generations of young who use the resources of the past to mold the character of the future. You, the readers of this book, are profoundly concerned with the Yr rious environments of school- ing facing teachers and students. Thus, you stand near the center of the vast trw efforts necessary to offer the widest opportunity for allteachers, administrators, parents, and those they nurture. Your overarching purpose: to fulfill the powers of the young in the pursuit of their personal and special capacities and excellences. But we do not yet know who among the young during their school years will eventually turn to a lifework in science. We do know that there are wide ix opportunities in scientific and technological work availableto the young with many interests, varied abilities, and personalities. We do know enough ofthe arts of teaching to create environments that nourish personal initiativein which the young may do works that demonstrate talentin science. And we are aware that, over the nation, teacherswhether in classrooms, inadminis- trative offices, or in the library; whetheras scientists in laboratories; whether as parents at homeare central, singly and together, to the creation of such environments. The authors of Gifted Young in Science: Potential ThroughPerformance explore the nature of work in science, in schooling, and ineducation, and thus explore in practice and in theory what is known andyet to be known. From the whole work, you, the readersfrom thevantage point of your particular situationsmay find models of the environments centralto turning general and special gifts into particular talents in science. I invite you to join the authors. For the book in handadvances your causes as teachersin whatever capacityas well as thecauses of the young particularly those young who daily engage in finding andcreating their lives and their lifework. Bill G. Aldridge Executive Director NS TA x N Part I By Way of Beginning I I By Way of Beginning: Seeding Destiny inan Open Society We are living in a world at one of its strange turning points. Indeed,a number of students of intellectual history recognize the presentas a major crisis in the history of the planet. In a curious way, weare catapulting into a new century a decade or so before its coming. Society mobilized to confront the It dustrial Revolution a hundred years or soago; we are now engaged in meeting the thrust of what has been called the Postindustrial Revolution. And as Daniel Bell* insists, on convincing data, the activity of this society will be centrally based in science and technology.' Bell's analysis, as fresh today as it was when he wrote it, proceedssome- what as follows: The preindustrial society interacts withnature; the indus- trial society with the machine.
Recommended publications
  • The Parasitic Host: Symbiosis Contra Neo-Darwinism
    Pli 9 (2000), 119-38. The Parasitic Host: Symbiosis contra Neo-Darwinism MICHELLE SPEIDEL Introduction Darwinism, and its modern formulation, neo-Darwinism, have often been the target of philosophically motivated attacks which centre on what are often seen as the ideological underpinnings, assumptions or consequences that are believed to emanate from Darwinism’s Malthusian origins. More often than not, these attacks focus on the ‘improper’ extensions of Darwinism into the social realm, in the areas of social engineering, evolutionary psychology (or its much-derided former incarnation, sociobiology), biopolitics, and the like. Occasionally, some attacks on Darwinism and neo-Darwinism have a force that is more ‘scientific’ in nature, that is, the attacks on the ideology attempt to show the entailment of real consequences for the methodology and practice of biological science itself, and are serious challenges not just to the ideological aspects of Darwinism, but to the theory itself. The group of approaches to evolution that can be grouped under the heading of ‘symbiosis’ appear to be challenges of precisely this kind. Symbiosis, the phenomenon that describes the ‘coevolution’ of two distinct species into a partnership-oriented evolutionary relationship, does appear at first glance to be absent from most descriptions of neo- Darwinism as a scientific theory, since such descriptions invariably prescribe competition as the primary impetus for evolutionary change. As I hope to show, there is a real sense in which a theory which emphasises competition cannot explain cooperative behaviours, except by fairly circuitous reroutings of the operational terms of the theory. Furthermore, I will argue that the real strength of symbiosis as a challenge to neo- 120 Pli 9 (2000) Darwinism lies in the very notion of symbiosis itself, quite apart from the ‘cooperative’ nature of symbiotic associations.
    [Show full text]
  • Copyright by Paul Harold Rubinson 2008
    Copyright by Paul Harold Rubinson 2008 The Dissertation Committee for Paul Harold Rubinson certifies that this is the approved version of the following dissertation: Containing Science: The U.S. National Security State and Scientists’ Challenge to Nuclear Weapons during the Cold War Committee: —————————————————— Mark A. Lawrence, Supervisor —————————————————— Francis J. Gavin —————————————————— Bruce J. Hunt —————————————————— David M. Oshinsky —————————————————— Michael B. Stoff Containing Science: The U.S. National Security State and Scientists’ Challenge to Nuclear Weapons during the Cold War by Paul Harold Rubinson, B.A.; M.A. Dissertation Presented to the Faculty of the Graduate School of The University of Texas at Austin in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy The University of Texas at Austin August 2008 Acknowledgements Thanks first and foremost to Mark Lawrence for his guidance, support, and enthusiasm throughout this project. It would be impossible to overstate how essential his insight and mentoring have been to this dissertation and my career in general. Just as important has been his camaraderie, which made the researching and writing of this dissertation infinitely more rewarding. Thanks as well to Bruce Hunt for his support. Especially helpful was his incisive feedback, which both encouraged me to think through my ideas more thoroughly, and reined me in when my writing overshot my argument. I offer my sincerest gratitude to the Smith Richardson Foundation and Yale University International Security Studies for the Predoctoral Fellowship that allowed me to do the bulk of the writing of this dissertation. Thanks also to the Brady-Johnson Program in Grand Strategy at Yale University, and John Gaddis and the incomparable Ann Carter-Drier at ISS.
    [Show full text]
  • Publications of Peter H. Raven
    Peter H. Raven LIST OF PUBLICATIONS 1950 1. 1950 Base Camp botany. Pp. 1-19 in Base Camp 1950, (mimeographed Sierra Club report of trip). [Upper basin of Middle Fork of Bishop Creek, Inyo Co., CA]. 1951 2. The plant list interpreted for the botanical low-brow. Pp. 54-56 in Base Camp 1951, (mimeographed Sierra Club report of trip). 3. Natural science. An integral part of Base Camp. Pp. 51-52 in Base Camp 1951, (mimeographed Sierra Club report of trip). 4. Ediza entomology. Pp. 52-54 in Base Camp 1951, (mimeographed Sierra Club report of trip). 5. 1951 Base Camp botany. Pp. 51-56 in Base Camp 1951, (mimeographed Sierra Club report of trip). [Devils Postpile-Minaret Region, Madera and Mono Counties, CA]. 1952 6. Parsley for Marin County. Leafl. West. Bot. 6: 204. 7. Plant notes from San Francisco, California. Leafl. West. Bot. 6: 208-211. 8. 1952 Base Camp bird list. Pp. 46-48 in Base Camp 1952, (mimeographed Sierra Club report of trip). 9. Charybdis. Pp. 163-165 in Base Camp 1952, (mimeographed Sierra Club report of trip). 10. 1952 Base Camp botany. Pp. 1-30 in Base Camp 1952, (mimeographed Sierra Club report of trip). [Evolution Country - Blaney Meadows - Florence Lake, Fresno, CA]. 11. Natural science report. Pp. 38-39 in Base Camp 1952, (mimeographed Sierra Club report of trip). 1953 12. 1953 Base Camp botany. Pp. 1-26 in Base Camp 1953, (mimeographed Sierra Club report of trip). [Mono Recesses, Fresno Co., CA]. 13. Ecology of the Mono Recesses. Pp. 109-116 in Base Camp 1953, (illustrated by M.
    [Show full text]
  • Chapter 9. NATURAL SELECTION and BIOLOGICAL EVOLUTION
    Chapter 9. NATURAL SELECTION AND BIOLOGICAL EVOLUTION Which beginning of time [the Creation] according to our Chronologie, fell upon the entrance of the night preced- ing the twenty third day of Octob. in the year of the Julian Calendar, 710 [i.e. B.C. 4004]. Archbishop James Ussher (1581—1656) The Annals of the World1 (1658:1) “How stupid not to have thought of that!” Thomas Huxley (1825-1895), about Darwin’s theory of Evolution by Nat- ural Selection. I. Introduction A. Classical Discoveries of Biology From the mid 18th Century to the early part of the 20th, a large fraction of biologists’ efforts went into two massive collective discoveries, the discovery of biotic diversity, and the discovery of evolution. Over the period from 1750 to 1950 the careful descriptive analyses of Swedish biol- ogist Karl von Linné and his followers showed there to be on the order of 10 million or so different types of living organisms. The differences in biotas in different parts of the world came to be appreciated, the amazing diversity of the tropics was documented, and previ- ously unimagined major groups of organisms were discovered, including microorganisms and the biota of odd habitats like the oceanic plankton. The sometimes bizarre and always impressive adaptation of organisms to their habitats and ways of life greatly impressed the early scientific naturalists, who argued that it proved the existence of an All Seeing Design- er. Similarly, paleontologists described a huge variety of fossil plants and animals. The succession of forms, and the presence of many detailed structural similarities between liv- ing and extinct forms, as well as structural parallels between living forms, strongly suggest- ed that living and ancient forms of life were connected by branching lines of descent.
    [Show full text]
  • Lynn Margulis and Dorion Sagan, Acquiring Genomes
    CONTENTS Forewordby Ernst Mayr XI xv CaJ1•1thtO JOOJ by lfnn M.,1i1ll1111J l>nrlun S1tc11n Preface Pulttl1h,Jby 1111k Rook,, PART ONE. THE EVOLUTIONARY IMPERATIVE AM,mber of rh, l'wucu1Book, Group. 1 Darwinism Not Neodarwinism 3 Allrlahu re1crved. Printed in the United States of America. No part of this book may be 2 Darwin's Dilemma 25 rc~r<>ducedin any manner whatsoever without written permission except in the case of 3 Relative Individuality 51 briefquotations embodied in critical articles and reviews.For information, address Basic 67 Books, 387 Park Avenue South, New York NY 10016-8810. 4 The Natural Selector 5 Principles of Evolutionary Novelty 71 Library of Congress Cataloging-in-Publication Data PART TWO. THE MICROBE IN EVOLUTION Margulis, Lynn, 1938- Acquiring genomes : a theory of the origins of species / Lynn Margulis and Dorion 6 Species and Cells 81 Sagan.-lst ed. 7 History of the Heritable 89 p. cm. Includes bibiliographical references PART THREE. PLANETARY LEGACY ISBN 0-465-04391-7 (hardcover) 1. Species. 2. Symbiogenesis. 3. Evolution (Biology). 4. Sagan Dorion 1959- II 123 Title. ' ' . 8 Gaian Planet 139 QH380 .M37 2002 9 Eukaryosis in an Anoxic World 576.8'6-dc21 2002001521 PART FOUR. CONSORTIA 165 Text design by TrishWilkimon 10 Seaworthy Alliances Set in 12.5-point AGaramond by The Perseus Books Group 11 Plant Proclivities 185 12 Chromosome Dance: The Fission Theory 191 FIRST EDITION 13 Darwin Revisited: 02 03 04 05 / IO 9 8 7 6 5 4 3 2 1 Spedes in the Evolutionary Dialogue 201 ..•,, •HI /,,/tit,,,,,,/ 1//11,11,111,,,,,
    [Show full text]
  • Reticulate Evolution Everywhere
    Reticulate Evolution Everywhere Nathalie Gontier Abstract Reticulation is a recurring evolutionary pattern found in phylogenetic reconstructions of life. The pattern results from how species interact and evolve by mechanisms and processes including symbiosis; symbiogenesis; lateral gene transfer (that occurs via bacterial conjugation, transformation, transduction, Gene Transfer Agents, or the movements of transposons, retrotransposons, and other mobile genetic elements); hybridization or divergence with gene flow; and infec- tious heredity (induced either directly by bacteria, bacteriophages, viruses, pri- ons, protozoa and fungi, or via vectors that transmit these pathogens). Research on reticulate evolution today takes on inter- and transdisciplinary proportions and is able to unite distinct research fields ranging from microbiology and molecular genetics to evolutionary biology and the biomedical sciences. This chapter sum- marizes the main principles of the diverse reticulate evolutionary mechanisms and situates them into the chapters that make up this volume. Keywords Reticulate evolution · Symbiosis · Symbiogenesis · Lateral Gene Transfer · Infectious agents · Microbiome · Viriome · Virolution · Hybridization · Divergence with gene flow · Evolutionary patterns · Extended Synthesis 1 Reticulate Evolution: Patterns, Processes, Mechanisms According to the Online Etymology Dictionary (http://www.etymonline.com), the word reticulate is an adjective that stems from the Latin words “re¯ticulātus” (having a net-like pattern) and re¯ticulum (little net). When scholars identify the evolution of life as being “reticulated,” they first and foremost refer to a recurring evolutionary pattern. N. Gontier (*) AppEEL—Applied Evolutionary Epistemology Lab, University of Lisbon, Lisbon, Portugal e-mail: [email protected] © Springer International Publishing Switzerland 2015 1 N. Gontier (ed.), Reticulate Evolution, Interdisciplinary Evolution Research 3, DOI 10.1007/978-3-319-16345-1_1 2 N.
    [Show full text]
  • Records, 1969-1973
    Records, 1969-1973 Finding aid prepared by Smithsonian Institution Archives Smithsonian Institution Archives Washington, D.C. Contact us at [email protected] Table of Contents Collection Overview ........................................................................................................ 1 Administrative Information .............................................................................................. 1 Historical Note.................................................................................................................. 1 Introduction....................................................................................................................... 1 Descriptive Entry.............................................................................................................. 1 Names and Subjects ...................................................................................................... 2 Container Listing ............................................................................................................. 4 Series 1: GENERAL ORGANIZATION..................................................................... 4 Series 2: PROGRAM................................................................................................ 6 Records https://siarchives.si.edu/collections/siris_arc_217299 Collection Overview Repository: Smithsonian Institution Archives, Washington, D.C., [email protected] Title: Records Identifier: Record Unit 7141 Date: 1969-1973 Extent: 4.5 cu. ft. (9 document boxes) Creator::
    [Show full text]
  • Carl Sagan 1934–1996
    Carl Sagan 1934–1996 A Biographical Memoir by David Morrison ©2014 National Academy of Sciences. Any opinions expressed in this memoir are those of the author and do not necessarily reflect the views of the National Academy of Sciences. CARL SAGAN November 9, 1934–December 20, 1996 Awarded 1994 NAS Pubic Welfare Medal Carl Edward Sagan was a founder of the modern disci- plines of planetary science and exobiology (which studies the potential habitability of extraterrestrial environments for living things), and he was a brilliant educator who was able to inspire public interest in science. A visionary and a committed defender of rational scientific thinking, he transcended the usual categories of academia to become one of the world’s best-known scientists and a true celebrity. NASA Photo Courtesy of Sagan was propelled in his careers by a wealth of talent, By David Morrison a large share of good luck, and an intensely focused drive to succeed. His lifelong quests were to understand our plane- tary system, to search for life beyond Earth, and to communicate the thrill of scientific discovery to others. As an advisor to the National Aeronautics and Space Administration (NASA) and a member of the science teams for the Mariner, Viking, Voyager, and Galileo missions, he was a major player in the scientific exploration of the solar system. He was also a highly popular teacher, but his influence reached far beyond the classroom through his vivid popular writing and his mastery of the medium of television. The early years Born in 1934, Sagan grew up in a workingclass Jewish neighborhood of Brooklyn, New York, and attended public schools there and in Rahway, New Jersey.
    [Show full text]
  • Living Organisms Author Their Read-Write Genomes in Evolution
    biology Review Living Organisms Author Their Read-Write Genomes in Evolution James A. Shapiro ID Department of Biochemistry and Molecular Biology, University of Chicago GCIS W123B, 979 E. 57th Street, Chicago, IL 60637, USA; [email protected]; Tel.: +1-773-702-1625 Academic Editor: Andrés Moya Received: 23 August 2017; Accepted: 28 November 2017; Published: 6 December 2017 Abstract: Evolutionary variations generating phenotypic adaptations and novel taxa resulted from complex cellular activities altering genome content and expression: (i) Symbiogenetic cell mergers producing the mitochondrion-bearing ancestor of eukaryotes and chloroplast-bearing ancestors of photosynthetic eukaryotes; (ii) interspecific hybridizations and genome doublings generating new species and adaptive radiations of higher plants and animals; and, (iii) interspecific horizontal DNA transfer encoding virtually all of the cellular functions between organisms and their viruses in all domains of life. Consequently, assuming that evolutionary processes occur in isolated genomes of individual species has become an unrealistic abstraction. Adaptive variations also involved natural genetic engineering of mobile DNA elements to rewire regulatory networks. In the most highly evolved organisms, biological complexity scales with “non-coding” DNA content more closely than with protein-coding capacity. Coincidentally, we have learned how so-called “non-coding” RNAs that are rich in repetitive mobile DNA sequences are key regulators of complex phenotypes. Both biotic and abiotic ecological challenges serve as triggers for episodes of elevated genome change. The intersections of cell activities, biosphere interactions, horizontal DNA transfers, and non-random Read-Write genome modifications by natural genetic engineering provide a rich molecular and biological foundation for understanding how ecological disruptions can stimulate productive, often abrupt, evolutionary transformations.
    [Show full text]
  • James Lovelock's Gaia Hypothesis
    James Lovelock’s Gaia hypothesis: ”A New Look at Life on Earth” ... for the Life and the Earth sciences Sébastien Dutreuil To cite this version: Sébastien Dutreuil. James Lovelock’s Gaia hypothesis: ”A New Look at Life on Earth” ... for the Life and the Earth sciences. Dreamers, Visionaries, and Revolutionaries in the Life Sciences, pp.272-287, 2018, 9780226569901. hal-01863320 HAL Id: hal-01863320 https://hal.archives-ouvertes.fr/hal-01863320 Submitted on 28 Aug 2018 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. James Lovelock’s Gaia hypothesis: "A New Look at Life on Earth" ... for the Life and the Earth sciences. Sébastien Dutreuil James Lovelock (b. 1919) was described by the curators of an exhibition at London’s Science Museum in 2014 as a "scientist, inventor and maverick."1 He was clearly an eclectic inventor from the very beginning of his career as a research engineer in the 1940’s. He was an accomplished scientist before formulating the Gaia hypothesis in the 1970’s, with pioneering work in analytical chemistry, biochemistry and cryobiology. He was perhaps a maverick, when he quit academia in 1964, at age 45 to settle as an "independent scientist." But the Gaia hypothesis, his major accomplishment, is that of a dreamer.
    [Show full text]
  • Lynn Margulis
    BIOGRAPHY THE INDOMITABLE EVOLUTIONIST: LYNN MARGULIS MEENAKSHI PANT The evolutionary “To me, the human move to take responsibility interest in science. In 1957, she graduated biologist Lynn for the living Earth is laughable — the rhetoric with a degree in Liberal Arts, and moved to Margulis is best of the powerless. The planet takes care of us, the University of Wisconsin to study Biology known for her not we of it. Our self-inflated moral imperative under Walter Plaut (who was to become her work on the Serial to guide a wayward Earth, or heal our sick supervisor) and Hans Ris. In 1960, she graduated Endosymbiotic planet, is evidence of our immense capacity with an MS degree in Zoology and Genetics. Theory (SET) to for self-delusion. Rather, we need to protect She then began her research career in the explain the origins ourselves from ourselves.” University of California, under the guidance of of eukaryotic Max Alfert, earning her doctoral degree in 1965. cells. This article Lynn was offered her first job — a research presents key facets his very courageous statement that assistantship and the position of a lecturer in in the life of Tchallenges the self-acclaimed supremacy Brandeis University — even before she could this avant-garde of humans over nature was made by Lynn finish her dissertation. However, it was only biologist and her Margulis (refer Fig.1). She is believed to be work that has one of the most creative scientific theorists after she had been awarded a PhD that she changed the way of the modern era, who transformed the idea moved to Boston University, where she taught we perceive life on of how life evolved on Earth.
    [Show full text]
  • NSB-00-69 APPROVED MINUTES OPEN SESSION 357Th MEETING
    NSB-00-69 APPROVED MINUTES1 OPEN SESSION 357th MEETING NATIONAL SCIENCE BOARD The National Science Foundation Arlington, Virginia March 16, 2000 Members Present: Members Absent: Eamon M. Kelly, Chairman Diana S. Natalicio, Vice Chair Pamela A. Ferguson John A. Armstrong M.R.C. Greenwood Mary K. Gaillard Stanley V. Jaskolski Sanford D. Greenberg Robert M. Solow Anita K. Jones Bob H. Suzuki George M. Langford Jane Lubchenco Joseph A. Miller, Jr. Eve L. Menger Claudia I. Mitchell-Kernan Robert C. Richardson Vera S. Rubin Maxine Savitz Luis Sequeira Richard Tapia Chang-Lin Tien Warren M. Washington John A. White, Jr. Rita R. Colwell, NSF Director 1 The minutes of the March 16 meeting were approved by the Board at their 358th meeting, May 4, 2000. OS-3-00 1 The National Science Board (NSB) convened in Open Session at 1:06 p.m. on Thursday, March 16, 2000, with Dr. Eamon M. Kelly, Chairman of the NSB, presiding (Agenda NSB-00-55). In accordance with the Government in the Sunshine Act, this portion of the meeting was open to the public. Dr. Kelly began the meeting by congratulating the most recent nominees to the NSB. The President announced his intention to nominate Dr. Nina V. Federoff (The Pennsylvania State University), and to renominate Dr. Diana Natalicio. In addition, the Senate Health, Education, Labor, and Pensions Committee has approved the nominations of Dr. Michael G. Rossmann (Purdue University) and Dr. Daniel Simberloff (University of Tennessee-Knoxville). The latter two nominations await consideration by the full Senate next week. Dr. Kelly reported on the presentation to the Board the previous evening by Dr.
    [Show full text]