Conversations with Stefan Pokorski (Sp and Andrew Kobos)
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Unrestricted Immigration and the Foreign Dominance Of
Unrestricted Immigration and the Foreign Dominance of United States Nobel Prize Winners in Science: Irrefutable Data and Exemplary Family Narratives—Backup Data and Information Andrew A. Beveridge, Queens and Graduate Center CUNY and Social Explorer, Inc. Lynn Caporale, Strategic Scientific Advisor and Author The following slides were presented at the recent meeting of the American Association for the Advancement of Science. This project and paper is an outgrowth of that session, and will combine qualitative data on Nobel Prize Winners family histories along with analyses of the pattern of Nobel Winners. The first set of slides show some of the patterns so far found, and will be augmented for the formal paper. The second set of slides shows some examples of the Nobel families. The authors a developing a systematic data base of Nobel Winners (mainly US), their careers and their family histories. This turned out to be much more challenging than expected, since many winners do not emphasize their family origins in their own biographies or autobiographies or other commentary. Dr. Caporale has reached out to some laureates or their families to elicit that information. We plan to systematically compare the laureates to the population in the US at large, including immigrants and non‐immigrants at various periods. Outline of Presentation • A preliminary examination of the 609 Nobel Prize Winners, 291 of whom were at an American Institution when they received the Nobel in physics, chemistry or physiology and medicine • Will look at patterns of -
Steven Weinberg Cv Born
STEVEN WEINBERG CV BORN: May 3, 1933, in New York, N.Y. EDUCATION: Cornell University, 1950–1954 (A.B., 1954) Copenhagen Institute for Theoretical Physics, 1954–1955 Princeton University, 1955–1957 (Ph.D.,1957). HONORARY DEGREES: Harvard University, A.M., 1973 Knox College, D.Sc., 1978 University of Chicago, Sc.D., 1978 University of Rochester, Sc.D., l979 Yale University, Sc.D., 1979 City University of New York,Sc.D., 1980 Clark University, Sc.D., 1982 Dartmouth College, Sc.D., 1984 Weizmann Institute, Ph.D. Hon.Caus., 1985 Washington College, D.Litt., 1985 Columbia University, Sc.D., 1990 University of Salamanca, Sc.D., 1992 University of Padua, Ph.D. Hon.Caus., 1992 University of Barcelona, Sc.D., 1996 Bates College, Sc. D., 2002 McGill University, Sc. D., 2003 University of Waterloo, Sc. D., 2004 Renssalear Polytechnic Institue, Sc. D., 2016 Rockefeller University, Sc. D., 2017 PRESENT POSITION: Josey Regental Professor of Science, University of Texas, 1982– PAST POSITIONS: Columbia University, 1957–1959 Lawrence Radiation Laboratory, 1959–1960 University of California, Berkeley, 1960–1969 On leave, Imperial College, London, 1961–1962 Steven Weinberg 2 Became full professor, 1964 On leave, Harvard University, 1966–1967 On leave, Massachusetts Institute of Technology, 1967–1969 Massachusetts Institute of Technology, 1969–1973, Professor of Physics Harvard University, 1973–1983, Higgins Professor of Physics On leave 1976–1977, as Visiting Professor of Physics, Stanford University Smithsonian Astrophysical Observatory, 1973-1983, Senior -
Abbreviations of Names of Serials
Abbreviations of Names of Serials This list gives the form of references used in Mathematical not previously listed E available electronically Reviews (MR). The abbreviation is followed by the complete ∗ journal reviewed cover-to-cover V videocassette series title, the place of publication and other pertinent information. § monographic series bibliographic journal † ¶ Abh. Braunschw. Wiss. Ges. Abhandlungen der E Acta Appl. Math. Acta Applicandae Mathematicae. An ∗ Braunschweigischen Wissenschaftlichen Gesellschaft. § International Survey Journal on Applying Mathematics and J. Cramer Verlag, Braunschweig. (Formerly Abh. Mathematical Applications. Kluwer Acad. Publ., Dordrecht. Braunschweig. Wiss. Ges.) ISSN 0167-8019. Abh. Braunschweig. Wiss. Ges. Abhandlungen der Acta Arith. Acta Arithmetica. Polish Acad. Sci., Warsaw. Braunschweigischen Wissenschaftlichen Gesellschaft. § ISSN 0065-1036. Goltze, Gottingen.¨ (Continued as Abh. Braunschw. Wiss. Acta Astronom. Sinica Acta Astronomica Sinica. Tianwen Ges.) Xuebao. Kexue Chubanshe (Science Press), Beijing. Abh. Math. Sem. Univ. Hamburg Abhandlungen aus (Translated in Chinese Astronom. Astrophys.) ISSN 0001- § dem Mathematischen Seminar der Universitat¨ Hamburg. 5245. Vandenhoeck & Ruprecht, Gottingen.¨ ISSN 0025-5858. Acta Astrophys. Sinica Acta Astrophysica Sinica. Tianti Abh. Math.-Naturwiss. Kl. Akad. Wiss. Lit. Mainz Wuli Xuebao. Kexue Chubanshe (Science Press), Beijing. † Abhandlungen der Mathematisch-Naturwissenschaftlichen (Translated in Chinese Astronom. Astrophys.) ISSN 0253- Klasse. Akademie der Wissenschaften und der Literatur 2379. in Mainz. [Transactions of the Mathematical-Scientific Acta Automat. Sinica Acta Automatica Sinica. Zidonghua Section. Academy of Sciences and Literature in Mainz] Xuebao. Kexue Chubanshe (Science Press), Beijing. ISSN Steiner, Stuttgart. ISSN 0002-2993. 0254-4156. Abstr. Appl. Anal. Abstract and Applied Analysis. Acta Cienc. Indica Math. Acta Ciencia Indica. § Mancorp, Tampa, FL. ISSN 1085-3375. Mathematics. Pragati Prakashan, Meerut. -
SHELDON LEE GLASHOW Lyman Laboratory of Physics Harvard University Cambridge, Mass., USA
TOWARDS A UNIFIED THEORY - THREADS IN A TAPESTRY Nobel Lecture, 8 December, 1979 by SHELDON LEE GLASHOW Lyman Laboratory of Physics Harvard University Cambridge, Mass., USA INTRODUCTION In 1956, when I began doing theoretical physics, the study of elementary particles was like a patchwork quilt. Electrodynamics, weak interactions, and strong interactions were clearly separate disciplines, separately taught and separately studied. There was no coherent theory that described them all. Developments such as the observation of parity violation, the successes of quantum electrodynamics, the discovery of hadron resonances and the appearance of strangeness were well-defined parts of the picture, but they could not be easily fitted together. Things have changed. Today we have what has been called a “standard theory” of elementary particle physics in which strong, weak, and electro- magnetic interactions all arise from a local symmetry principle. It is, in a sense, a complete and apparently correct theory, offering a qualitative description of all particle phenomena and precise quantitative predictions in many instances. There is no experimental data that contradicts the theory. In principle, if not yet in practice, all experimental data can be expressed in terms of a small number of “fundamental” masses and cou- pling constants. The theory we now have is an integral work of art: the patchwork quilt has become a tapestry. Tapestries are made by many artisans working together. The contribu- tions of separate workers cannot be discerned in the completed work, and the loose and false threads have been covered over. So it is in our picture of particle physics. Part of the picture is the unification of weak and electromagnetic interactions and the prediction of neutral currents, now being celebrated by the award of the Nobel Prize. -
Nobel Prize for Physics, 1979
Nobel Prize for Physics, 1979 Abdus Sal am Physics' most prestigious accolade forces is a significant milestone in goes this year to Sheldon Glashow, the constant quest to describe as Abdus Salam and Steven Weinberg much as possible of the world for their work in elucidating the inter around us from a minimal set of actions of elementary particles, and initial ideas. in particular for the development of 'At first sight there may be little or the theory which unifies the electro no similarity between electromag magnetic and weak forces. netic effects and the phenomena This synthesis of two of the basic associated with weak interactions', forces of nature must be reckoned as wrote Sheldon Glashow in 1960. one of the crowning achievements 'Yet remarkable parallels emerge...' of a century which has already seen Both kinds of interactions affect the birth of both quantum mechanics leptons and hadrons; both appear to and relativity. be 'vector' interactions brought Electromagnetism and the weak about by the exchange of particles force might appear to have little to carrying unit spin and negative pari do with each other. Electromagne ty; both have their own universal tism is our everyday world — it holds coupling constant which governs the atoms together and produces light, strength of the interactions. while the weak force was for a long These vital clues led Glashow to time known only for the relatively propose an ambitious theory which obscure phenomenon of beta-decay attempted to unify the two forces. radioactivity. However there was one big difficul The successful unification of these ty, which Glashow admitted had to two apparently highly dissimilar be put to one side. -
Annual Report 2002
.• i I ! - INSTYTUT PROBLEMOW J/\DROWYCH im. Andrzeja Sottana The Andrzej Softan INSTITUTE FOR NUCLEAR STUDIES ANNUAL REPORT 2002 .-T PL-05-400 OTWOCK-SWIERK, POLAND tel.: 048 22 718 05 83 fax: 048 22 779 34 81 e-mail: [email protected] http://www.ipj.gov.pl Editors: D. Chmielewska E. Infeld Z. Preibisz P. Zuprariski Secretarial work and layout: A. Odziemczyk K. Traczyk Cover design G. Karczmarczyk Printed by Zakted Graficzny UW, zam. 368/2003 ISSN 1232-5309 Annual Report 2002 CONTENTS I. GENERAL INFORMATION 7 1. MANAGEMENT OF THE INSTITUTE 7 2. SCIENTIFIC COUNCIL 8 3. DEPARTMENTS OF THE INSTITUTE 9 4. SCIENTIFIC STAFF OF THE INSTITUTE 10 5. VISITING SCIENTISTS 12 6. GRANTS 14 7. DEGREES 18 8. CONFERENCES AND WORKSHOPS ORGANIZED BY IPJ 18 II. REPORTS ON RESEARCH BY DEPARTMENT 19 1 NUCLEAR REACTIONS 19 2. NUCLEAR SPECTROSCOPY AND TECHNIQUE 39 3. DETECTORS AND NUCLEAR ELECTRONICS 59 4. RADIATION SHIELDING AND DOSIMETRY 71 5. PLASMA PHYSICS AND TECHNOLOGY 79 6. HIGH ENERGY PHYSICS 99 7. COSMIC RAY PHYSICS 123 8. NUCLEAR THEORY 135 9. MATERIAL STUDIES 151 10. ACCELERATOR PHYSICS AND TECHNOLOGY 161 11. TRAINING AND CONSULTING 169 12. ESTABLISHMENT FOR NUCLEAR EQUIPMENT 177 III. AUTHOR INDEX 183 Annual Report 2002 PL0400128 Annual Report 2002 FOREWORD For Polish science the year 2002 was the year of struggle for survival. The state financing has reached the lowest-ever level. The sudden drop in this financing was like pulling a pillow from under a dying. Many a weaker man dies, many a weaker institution perishes. This Annual Report bears witness that we have managed to survive, though we did not emerge quite unscathed: our personnel had decreased in number by about 15 %, the number of our publications did not increase (about 200), no discovery worth the Nobel prize was announced, etc. -
White Book Fin
Section of Nuclear Physics of the Polish Physical Society (SFJ-PTF) Heavy Ion Laboratory, Warsaw University (HIL) Institute of Nuclear Physics Polish Academy of Sciences, Kraków (IFJ PAN) WHITE BOOK on the Future of Low-Energy Nuclear Physics in Poland and the Development of the National Research Infrastructure Editors: A. Maj, K. Rusek, P. Bednarczyk, J. Dudek, B. Fornal, M. Kicińska-Habior, S. Kistryn, M. Lewitowicz, T. Matulewicz, W. Nazarewicz, W. Satuła, J. Skalski, J. Srebrny, E. Stephan, W.H. Trzaska Kraków/Warszawa September 2020 Participants in “The future of low-energy nuclear physics in Poland and the development of national research infrastructure” conference. Photo taken in front of the HIL building on January 14, 2019 by W.H. Trzaska. Technical Editors: Adam Maj, Marzena Wolińska-Cichocka e-mails: [email protected], [email protected] Cover design: Jerzy Grębosz (Cover photo - thanks to The NASA Hubble Space Telescope) ISBN 978-83-959188-0-3 Contents Contents ............................................................................................................................... 3 1. Executive Summary ......................................................................................................... 5 2. Theory of nuclear structure and dynamics ....................................................................... 8 2.1 Few-body systems and nuclear interactions ............................................................ 10 2.2 The atomic nucleus as an open quantum system .................................................... -
Jan J. Ostrowski H +48 697 506 677 CURRICULUM VITAE B [email protected]
Jan J. Ostrowski H +48 697 506 677 CURRICULUM VITAE B [email protected] Higher education 2011 Ph.D. in astronomy, Nicolaus Copernicus University, Toruń, Ph.D. 2016 2004 M.Sc. in astronomy, Nicolaus Copernicus University, Toruń, M.Sc. 2011 three years break between 2008 and 2010 PhD thesis title Mass function of galaxy clusters in inhomogeneous relativistic cosmology supervisor Boudewijn Roukema thesis advisor Thomas Buchert Master thesis title On the relativistic topological acceleration effect supervisor Boudewijn Roukema Post-doc positions 2016 post-doc position, at: Centre de Recherche Astrophysique de Lyon, École Normale 2018 Supérieure de Lyon, Lyon Institut des Origines. Faculty positions 2018adiunkt (Juniorprofessor, assistant professor), at: National Centre for Nuclear 2020 Research, Warsaw, Poland. Teaching lab Course in electro-dynamics Ecole Normale Supérieure de Lyon workshop Introduction to Unix Nicolaus Copernicus University workshop Structured programming Nicolaus Copernicus University Memberships { Polish Society on Relativity (POTOR) { Cosmology group at Toruń Center for Astronomy (TCfA) { Theoretical Cosmology Group at Centre de Recherche Astrophysique de Lyon Grants/Scholarships 2015 Polish National Science Centre grant: OPUS 9. 2018 Project: relativistic corrections to the N-body simulations - team member 2015 • High Energies, Compact Objects, and Large Surveys (HECOLS) grant. scientific visit at the Centre de Recherche Astrophysique de Lyon 2014 Polish National Science Centre grant: Etiuda 2. 2015 scientific visit at the Centre de Recherche Astrophysique de Lyon + doctoral scholarship 2014 • High Energies, Compact Objects, and Large Surveys (HECOLS) grant. scientific visit at the Centre de Recherche Astrophysique de Lyon 2012 Polish Ministry of Science grant: Mobilność plus II. 2014 scientific visit at the Centre de Recherche Astrophysique de Lyon 2011 • Nicolaus Copernicus University scholarship. -
Steven Weinberg
Obituary Steven Weinberg (1933–2021) Theoretical physicist whose electroweak theory won the Nobel prize. teven Weinberg brought the funda- on to positions at Columbia University, New mental understanding of nature to York; the University of Berkeley, California; new levels of power and completeness. the Massachusetts Institute of Technology in He played a central part in formulating Cambridge; and, in 1973, to Harvard University and establishing theoretical physics’ in Cambridge, where he was Higgins Professor Stwo standard models — the standard model of Physics. In 1982, he moved to the University of fundamental interactions and the standard of Texas at Austin, where he remained, teach- model of cosmology. His greatest achievement ing until earlier this year. was to propose the unified theory of electro- Scientists, no less than composers, have magnetism and weak interactions, which is still styles. Einstein and Richard Feynman were in use. This won him the Nobel Prize in Phys- rebellious, most comfortable when they were ics in 1979, shared with his school classmate ‘thinking different’. Weinberg was not like that. Sheldon Lee Glashow, and with Abdus Salam. His approach was scholarly. Most obviously, he His 1967 Physical Review Letters paper, ‘A was keenly interested in the history of physics in Model of Leptons’, combined disparate ideas the West, about which he wrote several deeply about gauge symmetry, symmetry breaking researched and unashamedly ‘Whiggish’ books, and the classification of particles into an ele- most recently To Explain the World (2015). gant whole. Given the state of knowledge at He paid close attention to other people’s CERN/SPL the time, the breakthrough still calls to mind work. -
Sam Treiman Was Born in Chicago to a First-Generation Immigrant Family
NATIONAL ACADEMY OF SCIENCES SAM BARD TREIMAN 1925–1999 A Biographical Memoir by STEPHEN L. ADLER Any opinions expressed in this memoir are those of the author and do not necessarily reflect the views of the National Academy of Sciences. Biographical Memoirs, VOLUME 80 PUBLISHED 2001 BY THE NATIONAL ACADEMY PRESS WASHINGTON, D.C. Courtesy of Robert P. Matthews SAM BARD TREIMAN May 27, 1925–November 30, 1999 BY STEPHEN L. ADLER AM BARD TREIMAN WAS a major force in particle physics S during the formative period of the current Standard Model, both through his own research and through the training of graduate students. Starting initially in cosmic ray physics, Treiman soon shifted his interests to the new particles being discovered in cosmic ray experiments. He evolved a research style of working closely with experimen- talists, and many of his papers are exemplars of particle phenomenology. By the mid-1950s Treiman had acquired a lifelong interest in the weak interactions. He would preach to his students that “the place to learn about the strong interactions is through the weak and electromagnetic inter- actions; the problem is half as complicated.’’ The history of the subsequent development of the Standard Model showed this philosophy to be prophetic. After the discovery of parity violation in weak interactions, Treiman in collaboration with J. David Jackson and Henry Wyld (1957) worked out the definitive formula for allowed beta decays, taking into account the possible violation of time reversal symmetry, as well as parity. Shortly afterwards Treiman embarked with Marvin Goldberger on a dispersion relations analysis (1958) of pion and nucleon beta decay, a 3 4 BIOGRAPHICAL MEMOIRS major outcome of which was the famed Goldberger-Treiman relation for the charged pion decay amplitude. -
Deconstruction: Standard Model Discoveries
deconstruction: standard model discoveries elementary types of particles form the basis for the theoretical framework known as the Sixteen Standard Model of fundamental particles and forces. J.J. Thomson discovered the electron in 1897, while scientists at Fermilab saw the first direct interaction of a tau neutrino with matter less than 10 years ago. This graphic names the 16 particle types and shows when and where they were discovered. These particles also exist in the form of antimatter particles, with the same mass and the opposite electric charge. Together, they account for about 300 subatomic particles observed in experiments so far. The Standard Model also predicts the Higgs boson, which still eludes experimental detection. Experiments at Fermilab and CERN could see the first signals for this particle in the next couple of years. Other funda- mental particles must exist, too. The Standard Model does not account for dark matter, which appears to make up 83 percent of all matter in the universe. 1968: SLAC 1974: Brookhaven & SLAC 1995: Fermilab 1979: DESY u c t g up quark charm quark top quark gluon 1968: SLAC 1947: Manchester University 1977: Fermilab 1923: Washington University* d s b γ down quark strange quark bottom quark photon 1956: Savannah River Plant 1962: Brookhaven 2000: Fermilab 1983: CERN νe νμ ντ W electron neutrino muon neutrino tau neutrino W boson 1897: Cavendish Laboratory 1937 : Caltech and Harvard 1976: SLAC 1983: CERN e μ τ Z electron muon tau Z boson *Scientists suspected for several hundred years that light consists of particles. Many experiments and theoretical explana- tions have led to the discovery of the photon, which explains both wave and particle properties of light. -
Memories of a Theoretical Physicist
Memories of a Theoretical Physicist Joseph Polchinski Kavli Institute for Theoretical Physics University of California Santa Barbara, CA 93106-4030 USA Foreword: While I was dealing with a brain injury and finding it difficult to work, two friends (Derek Westen, a friend of the KITP, and Steve Shenker, with whom I was recently collaborating), suggested that a new direction might be good. Steve in particular regarded me as a good writer and suggested that I try that. I quickly took to Steve's suggestion. Having only two bodies of knowledge, myself and physics, I decided to write an autobiography about my development as a theoretical physicist. This is not written for any particular audience, but just to give myself a goal. It will probably have too much physics for a nontechnical reader, and too little for a physicist, but perhaps there with be different things for each. Parts may be tedious. But it is somewhat unique, I think, a blow-by-blow history of where I started and where I got to. Probably the target audience is theoretical physicists, especially young ones, who may enjoy comparing my struggles with their own.1 Some dis- claimers: This is based on my own memories, jogged by the arXiv and IN- SPIRE. There will surely be errors and omissions. And note the title: this is about my memories, which will be different for other people. Also, it would not be possible for me to mention all the authors whose work might intersect mine, so this should not be treated as a reference work.