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Nathaniel Rich's Losing Earth and the Role of William Nierenberg And
Nathaniel Rich’s Losing Earth and the Role of William Nierenberg and Other Science Advisors: Why didn’t we act on climate change in the 1980s? Ed Levy The entire New York Times Magazine of August 5, 2018 was devoted to an important article by Nathaniel Rich, Losing Earth: The Decade we almost stopped climate Change. In Rich’s account from 1979 to 1989 the United States came close to “breaking our suicide pact with fossil fuels.”1 Rich shows that at the beginning of that decade a broad international consensus had developed favoring action in the form of a global treaty to curb emissions and that U.S. leadership was required and possibly forthcoming. Yet at the end of the decade it was clear that these efforts had failed. Rich sets as his primary task answering the question, “Why didn’t we act?” He does not provide a satisfactory answer. However, Rich’s informative and nuanced accounts convey well the shifting positions about climate change in the US during the decade. At the beginning it was difficult to get widespread attention, later it looked as though linking global warming to other issues such as ozone depletion and CFCs could result in action. These accounts are based on a large number of interviews and extensive research, but the story is told primarily through the eyes of two significant players, Rafe Pomerance and James Hansen, “a hyperkinetic lobbyist and a guileless atmospheric physicist who, at great personal cost, tried to warn humanity of what was coming.” Still, Rich barely addresses the central question explicitly and does not come close to providing a convincing answer. -
A General Theory of Climate Denial Peter J
A General Theory of Climate Denial Peter J. Jacques A General Theory of Climate Denial • Peter J. Jacques There is now a well-recognized right-wing counter-movement challenging the trend, attribution, impact, and civic implications of orthodox climate change science. Where do the body and spirit of this counter-movement come from? Here I will reºect on some conspicuous questions. First, why have academics, the media, and the counter-movement itself had difªculty naming the counter- movement? Second, why reject the premise of global environmental change at all? Finally, what is the result of the apparent binary choice between the ac- knowledgment of the orthodoxy and its rejection? A General Theory of Denial I will argue that climate denial is an appropriate label consistent with Lang’s “General Theory of Historical Denial.”1 Currently, there is disagreement whether climate “skeptic,” “contrarian,” and “denier” are representative terms.2 I have used the word “skeptic,” but I admit here and elsewhere that it is inappro- priate,3 because the skepticism in environmental skepticism is asymmetrical. As skeptics cast doubt on ecological science, they have an abiding faith in industrial science and technology, free enterprise, and those great institutions of Western Enlightenment.4 Further, skeptics rightfully argue that skepticism is a funda- mental sentiment of rigorous science. Ecological cynicism is then positioned as scientiªc without drawing attention to the asymmetry. Lahsen has successfully used the word “contrarian” to denote the most outspoken leaders of climate rejection, particularly credentialed physicists and climate scientists such as Frederick Seitz, Robert Jastrow, William Nierenberg, Willie Soon, and Sallie Balliunas. -
1 Census of Marine Life Participants 2000-2010
Census of Marine Life Participants 2000-2010 Raza Abidi, Dalhousie University, Canada Jo Acebes, Asia Research Center, Philippines Arturo Acero, Universidad Nacional de Colombia, Colombia Shanta Nair Achuthankutty, National Centre for Antarctic and Ocean Research, India C.T. Achuthankutty, National Institute of Oceanography, India Colleen Adam, DIVERSITAS, France Sarah Adamowicz, University of Guelph, Canada Nathan Adams, United States Helena Adão, University of Évora, Portugal Adrian Aebischer, University of Bern and Museum Fribourg, Switzerland Steven Africk, Acentech Inc, United States Vikram Agadi, National Institute Scientific Communication & Information Resources, India Yogi Agrawal, Sequoia Scientific, United States Maite Aguado, Universidad Autonóma de Madrid, Spain Anelio Aguayo-Lobo, Instituto Antarctico Chileno, Chile Paula Aguiar, University of the Azores, Portugal John Ahearn, Museum Victoria, Australia Sayyed Ahmed, Sultan Qaboos University, Sultanate of Oman Shane Ahyong, National Institute of Water & Atmospheric Research (NIWA), New Zealand Jim Aiken, Plymouth Marine Laboratory, United Kingdom Cameron Ainsworth, University of British Columbia, Canada Laura Airoldi, Università di Bologna, Italy Belinda Aker, National Oceanography Centre, Southampton, United Kingdom Dag Aksnes, University of Bergen, Norway Farid Al-Abdali, Five Oceans LLC, Sultanate of Oman Nasser Al-Azri, HMR Environmental Engineering Cunsultants, Sultanate of Oman Adnan Al-Azri, Sultan Qaboos University, Sultanate of Oman Monica Albuquerque, University Lusófona de Humanidades e Tecnologias, Portugal Jacqueline Alder, UNEP, Kenya Viviana Alder, University of Buenos Aires, Argentina Juan Luis Aleget, Universitat de Girona, Spain Yaroslava Alekseeva, Russian Academy of Sciences, Russia Vera Alexander, University of Alaska Fairbanks, United States Karen Alexander, University of New Hampshire, United States Daniel Alexandrov, European University at St. Petersburg, Russia J.R.B. -
The Physical Tourist Physics and New York City
Phys. perspect. 5 (2003) 87–121 © Birkha¨user Verlag, Basel, 2003 1422–6944/05/010087–35 The Physical Tourist Physics and New York City Benjamin Bederson* I discuss the contributions of physicists who have lived and worked in New York City within the context of the high schools, colleges, universities, and other institutions with which they were and are associated. I close with a walking tour of major sites of interest in Manhattan. Key words: Thomas A. Edison; Nikola Tesla; Michael I. Pupin; Hall of Fame for GreatAmericans;AlbertEinstein;OttoStern;HenryGoldman;J.RobertOppenheimer; Richard P. Feynman; Julian Schwinger; Isidor I. Rabi; Bronx High School of Science; StuyvesantHighSchool;TownsendHarrisHighSchool;NewYorkAcademyofSciences; Andrei Sakharov; Fordham University; Victor F. Hess; Cooper Union; Peter Cooper; City University of New York; City College; Brooklyn College; Melba Phillips; Hunter College; Rosalyn Yalow; Queens College; Lehman College; New York University; Courant Institute of Mathematical Sciences; Samuel F.B. Morse; John W. Draper; Columbia University; Polytechnic University; Manhattan Project; American Museum of Natural History; Rockefeller University; New York Public Library. Introduction When I was approached by the editors of Physics in Perspecti6e to prepare an article on New York City for The Physical Tourist section, I was happy to do so. I have been a New Yorker all my life, except for short-term stays elsewhere on sabbatical leaves and other visits. My professional life developed in New York, and I married and raised my family in New York and its environs. Accordingly, writing such an article seemed a natural thing to do. About halfway through its preparation, however, the attack on the World Trade Center took place. -
52Nd Annual Meeting
ACNP 52nd Annual Meeting Final Program December 8-12, 2013 The Westin Diplomat Resort & Spa Hollywood, Florida President: David A. Lewis, M.D. Program Committee Chair: Randy D. Blakely, Ph.D. Program Committee Co-Chair: Pat R. Levitt, Ph.D. This meeting is jointly sponsored by the Vanderbilt University School of Medicine Department of Psychiatry and the American College of Neuropsychopharmacology. Dear ACNP Members and Guests, It is a distinct pleasure to welcome you to the 2014 meeting of the American College of Neuropsychopharmacology! This 52nd annual meeting will again provide opportunities for the exercise of the College’s core values: the spirit of Collegiality, promoting in each other the best in science, training and service; participation in Community, pursuing together the goals of understanding the neurobiology of brain diseases and eliminating their burden on individuals and our society; and engaging in Celebration, taking the time to recognize and enjoy the contributions and accomplishments of our members and guests. Under the excellent leadership of Randy Blakely and Pat Levitt, the Program Committee has done a superb job in assembling an outstanding slate of scientific presentations. Based on membership feedback, the meeting schedule has been designed with the goals of achieving an optimal mix of topics and types of sessions, increasing the diversity of participating scientists and creating more time for informal interactions. The presentations will highlight both the breadth of the investigative interests of ACNP membership -
Claude Elwood Shannon (1916–2001) Solomon W
Claude Elwood Shannon (1916–2001) Solomon W. Golomb, Elwyn Berlekamp, Thomas M. Cover, Robert G. Gallager, James L. Massey, and Andrew J. Viterbi Solomon W. Golomb Done in complete isolation from the community of population geneticists, this work went unpublished While his incredibly inventive mind enriched until it appeared in 1993 in Shannon’s Collected many fields, Claude Shannon’s enduring fame will Papers [5], by which time its results were known surely rest on his 1948 work “A mathematical independently and genetics had become a very theory of communication” [7] and the ongoing rev- different subject. After his Ph.D. thesis Shannon olution in information technology it engendered. wrote nothing further about genetics, and he Shannon, born April 30, 1916, in Petoskey, Michi- expressed skepticism about attempts to expand gan, obtained bachelor’s degrees in both mathe- the domain of information theory beyond the matics and electrical engineering at the University communications area for which he created it. of Michigan in 1936. He then went to M.I.T., and Starting in 1938 Shannon worked at M.I.T. with after spending the summer of 1937 at Bell Tele- Vannevar Bush’s “differential analyzer”, the an- phone Laboratories, he wrote one of the greatest cestral analog computer. After another summer master’s theses ever, published in 1938 as “A sym- (1940) at Bell Labs, he spent the academic year bolic analysis of relay and switching circuits” [8], 1940–41 working under the famous mathemati- in which he showed that the symbolic logic of cian Hermann Weyl at the Institute for Advanced George Boole’s nineteenth century Laws of Thought Study in Princeton, where he also began thinking provided the perfect mathematical model for about recasting communications on a proper switching theory (and indeed for the subsequent mathematical foundation. -
Marconi Society - Wikipedia
9/23/2019 Marconi Society - Wikipedia Marconi Society The Guglielmo Marconi International Fellowship Foundation, briefly called Marconi Foundation and currently known as The Marconi Society, was established by Gioia Marconi Braga in 1974[1] to commemorate the centennial of the birth (April 24, 1874) of her father Guglielmo Marconi. The Marconi International Fellowship Council was established to honor significant contributions in science and technology, awarding the Marconi Prize and an annual $100,000 grant to a living scientist who has made advances in communication technology that benefits mankind. The Marconi Fellows are Sir Eric A. Ash (1984), Paul Baran (1991), Sir Tim Berners-Lee (2002), Claude Berrou (2005), Sergey Brin (2004), Francesco Carassa (1983), Vinton G. Cerf (1998), Andrew Chraplyvy (2009), Colin Cherry (1978), John Cioffi (2006), Arthur C. Clarke (1982), Martin Cooper (2013), Whitfield Diffie (2000), Federico Faggin (1988), James Flanagan (1992), David Forney, Jr. (1997), Robert G. Gallager (2003), Robert N. Hall (1989), Izuo Hayashi (1993), Martin Hellman (2000), Hiroshi Inose (1976), Irwin M. Jacobs (2011), Robert E. Kahn (1994) Sir Charles Kao (1985), James R. Killian (1975), Leonard Kleinrock (1986), Herwig Kogelnik (2001), Robert W. Lucky (1987), James L. Massey (1999), Robert Metcalfe (2003), Lawrence Page (2004), Yash Pal (1980), Seymour Papert (1981), Arogyaswami Paulraj (2014), David N. Payne (2008), John R. Pierce (1979), Ronald L. Rivest (2007), Arthur L. Schawlow (1977), Allan Snyder (2001), Robert Tkach (2009), Gottfried Ungerboeck (1996), Andrew Viterbi (1990), Jack Keil Wolf (2011), Jacob Ziv (1995). In 2015, the prize went to Peter T. Kirstein for bringing the internet to Europe. Since 2008, Marconi has also issued the Paul Baran Marconi Society Young Scholar Awards. -
Nobel Prizes
W W de Herder Heroes in endocrinology: 1–11 3:R94 Review Nobel Prizes Open Access Heroes in endocrinology: Nobel Prizes Correspondence Wouter W de Herder should be addressed to W W de Herder Section of Endocrinology, Department of Internal Medicine, Erasmus MC, ’s Gravendijkwal 230, 3015 CE Rotterdam, Email The Netherlands [email protected] Abstract The Nobel Prize in Physiology or Medicine was first awarded in 1901. Since then, the Nobel Key Words Prizes in Physiology or Medicine, Chemistry and Physics have been awarded to at least 33 " diabetes distinguished researchers who were directly or indirectly involved in research into the field " pituitary of endocrinology. This paper reflects on the life histories, careers and achievements of 11 of " thyroid them: Frederick G Banting, Roger Guillemin, Philip S Hench, Bernardo A Houssay, Edward " adrenal C Kendall, E Theodor Kocher, John J R Macleod, Tadeus Reichstein, Andrew V Schally, Earl " neuroendocrinology W Sutherland, Jr and Rosalyn Yalow. All were eminent scientists, distinguished lecturers and winners of many prizes and awards. Endocrine Connections (2014) 3, R94–R104 Introduction Endocrine Connections Among all the prizes awarded for life achievements in In 1901, the first prize was awarded to the German medical research, the Nobel Prize in Physiology or physiologist Emil A von Behring (3, 4). This award heralded Medicine is considered the most prestigious. the first recognition of extraordinary advances in medicine The Swedish chemist and engineer, Alfred Bernhard that has become the legacy of Nobel’s prescient idea to Nobel (1833–1896), is well known as the inventor of recognise global excellence. -
National Academy of Sciences July 1, 1979 Officers
NATIONAL ACADEMY OF SCIENCES JULY 1, 1979 OFFICERS Term expires President-PHILIP HANDLER June 30, 1981 Vice-President-SAUNDERS MAC LANE June 30, 1981 Home Secretary-BRYCE CRAWFORD,JR. June 30, 1983 Foreign Secretary-THOMAS F. MALONE June 30, 1982 Treasurer-E. R. PIORE June 30, 1980 Executive Officer Comptroller Robert M. White David Williams COUNCIL Abelson, Philip H. (1981) Markert,C. L. (1980) Berg, Paul (1982) Nierenberg,William A. (1982) Berliner, Robert W. (1981) Piore, E. R. (1980) Bing, R. H. (1980) Ranney, H. M. (1980) Crawford,Bryce, Jr. (1983) Simon, Herbert A. (1981) Friedman, Herbert (1982) Solow, R. M. (1980) Handler, Philip (1981) Thomas, Lewis (1982) Mac Lane, Saunders (1981) Townes, Charles H. (1981) Malone, Thomas F. (1982) Downloaded by guest on September 30, 2021 SECTIONS The Academyis divided into the followingSections, to which membersare assigned at their own choice: (11) Mathematics (31) Engineering (12) Astronomy (32) Applied Biology (13) Physics (33) Applied Physical and (14) Chemistry Mathematical Sciences (15) Geology (41) Medical Genetics Hema- (16) Geophysics tology, and Oncology (21) Biochemistry (42) Medical Physiology, En- (22) Cellularand Develop- docrinology,and Me- mental Biology tabolism (23) Physiological and Phar- (43) Medical Microbiology macologicalSciences and Immunology (24) Neurobiology (51) Anthropology (25) Botany (52) Psychology (26) Genetics (53) Social and Political Sci- (27) Population Biology, Evo- ences lution, and Ecology (54) Economic Sciences In the alphabetical list of members,the numbersin parentheses, followingyear of election, indicate the respective Class and Section of the member. CLASSES The members of Sections are grouped in the following Classes: I. Physical and Mathematical Sciences (Sections 11, 12, 13, 14, 15, 16). -
Channel Coding
1 Channel Coding: The Road to Channel Capacity Daniel J. Costello, Jr., Fellow, IEEE, and G. David Forney, Jr., Fellow, IEEE Submitted to the Proceedings of the IEEE First revision, November 2006 Abstract Starting from Shannon’s celebrated 1948 channel coding theorem, we trace the evolution of channel coding from Hamming codes to capacity-approaching codes. We focus on the contributions that have led to the most significant improvements in performance vs. complexity for practical applications, particularly on the additive white Gaussian noise (AWGN) channel. We discuss algebraic block codes, and why they did not prove to be the way to get to the Shannon limit. We trace the antecedents of today’s capacity-approaching codes: convolutional codes, concatenated codes, and other probabilistic coding schemes. Finally, we sketch some of the practical applications of these codes. Index Terms Channel coding, algebraic block codes, convolutional codes, concatenated codes, turbo codes, low-density parity- check codes, codes on graphs. I. INTRODUCTION The field of channel coding started with Claude Shannon’s 1948 landmark paper [1]. For the next half century, its central objective was to find practical coding schemes that could approach channel capacity (hereafter called “the Shannon limit”) on well-understood channels such as the additive white Gaussian noise (AWGN) channel. This goal proved to be challenging, but not impossible. In the past decade, with the advent of turbo codes and the rebirth of low-density parity-check codes, it has finally been achieved, at least in many cases of practical interest. As Bob McEliece observed in his 2004 Shannon Lecture [2], the extraordinary efforts that were required to achieve this objective may not be fully appreciated by future historians. -
Andrew Viterbi
Andrew Viterbi Interview conducted by Joel West, PhD December 15, 2006 Interview conducted by Joel West, PhD on December 15, 2006 Andrew Viterbi Dr. Andrew J. Viterbi, Ph.D. serves as President of the Viterbi Group LLC and Co- founded it in 2000. Dr. Viterbi co-founded Continuous Computing Corp. and served as its Chief Technology Officer from July 1985 to July 1996. From July 1983 to April 1985, he served as the Senior Vice President and Chief Scientist of M/A-COM Inc. In July 1985, he co-founded QUALCOMM Inc., where Dr. Viterbi served as the Vice Chairman until 2000 and as the Chief Technical Officer until 1996. Under his leadership, QUALCOMM received international recognition for innovative technology in the areas of digital wireless communication systems and products based on Code Division Multiple Access (CDMA) technologies. From October 1968 to April 1985, he held various Executive positions at LINKABIT (M/A-COM LINKABIT after August 1980) and served as the President of the M/A-COM LINKABIT. In 1968, Dr. Viterbi Co-founded LINKABIT Corp., where he served as an Executive Vice President and later as the President in the early 1980's. Dr. Viterbi served as an Advisor at Avalon Ventures. He served as the Vice-Chairman of Continuous Computing Corp. since July 1985. During most of his period of service with LINKABIT, Dr. Viterbi served as the Vice-Chairman and a Director. He has been a Director of Link_A_Media Devices Corporation since August 2010. He serves as a Director of Continuous Computing Corp., Motorola Mobility Holdings, Inc., QUALCOMM Flarion Technologies, Inc., The International Engineering Consortium and Samsung Semiconductor Israel R&D Center Ltd. -
David Botstein 2015 Book.Pdf
Princeton University HONORS FACULTY MEMBERS RECEIVING EMERITUS STATUS May 2015 The biographical sketches were written by colleagues in the departments of those honored. Copyright © 2015 by The Trustees of Princeton University 550275 Contents Faculty Members Receiving Emeritus Status 2015 Steven L. Bernasek .......................3 David Botstein...........................6 Erhan Çinlar ............................8 Caryl Emerson.......................... 11 Christodoulos A. Floudas ................. 15 James L. Gould ......................... 17 Edward John Groth III ...................20 Philip John Holmes ......................23 Paul R. Krugman .......................27 Bede Liu .............................. 31 Alan Eugene Mann ......................33 Joyce Carol Oates .......................36 Clarence Ernest Schutt ...................39 Lee Merrill Silver .......................41 Thomas James Trussell ...................43 Sigurd Wagner .........................46 { 1 } { 2 } David Botstein avid Botstein was educated at Harvard (A.B. 1963) and the D University of Michigan (Ph.D. 1967). He joined the faculty of the Massachusetts Institute of Technology, rising through the ranks from instructor to professor of genetics. In 1987, he moved to Genentech, Inc. as vice president–science, and, in 1990, he joined Stanford University’s School of Medicine, where he was chairman of the Department of Genetics. In July, 2003 he became director of the Lewis-Sigler Institute for Integrative Genomics and the Anthony B. Evnin ’62 Professor of Genomics at Princeton University. David’s research has centered on genetics, especially the use of genetic methods to understand biological functions. His early work in bacterial genetics contributed to the discovery of transposable elements in bacteria and an understanding of their physical structures and genetic properties. In the early 1970s, he turned to budding yeast (Saccharomyces cerevisiae) and devised novel genetic methods to study the functions of the actin and tubulin cytoskeletons.