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Chapter 1 the Biography of a Trafficking Material
Trafficking Materials and Maria Rentetzi Gendered Experimental Practices Chapter 1 The Biography of a Trafficking Material In 1904, an article titled "Radium and Radioactivity" appeared in Century 1 Magazine, a monthly popular magazine published from 1881 to 1930. The article presents Marie Curie's personal account of the discovery of radium and radioactivity. In the article, Curie discusses in depth her arduous attempts to study the radiation of the compounds of uranium and that of known chemical elements, hoping to discover more which are endowed with atomic radioactivity. She revels that it was the chemists who supplied her with the materials she needed. "As I desired to make a very thorough investigation, I had resource to different chemists, who put at my disposal specimens—in some cases the only ones in existence—containing very rare elements." Her next step was to examine different minerals, especially the oxide of uranium 2 ore (pitchblende). To her great surprise, this specimen was found to be four times more active than oxide of uranium itself. The explanation was more than obvious. "The ore must contain a substance more radioactive than uranium and thorium, and this substance must necessarily be a chemical element as yet unknown."1 Her attempts to isolate the new element would lead Marie and Pierre Curie, who joined her research shortly after, to the discovery of both polonium and radium, to the Nobel Prize in Physics in 1903, and to a second Nobel Prize in 1911, this time in chemistry. This chapter attempts to present a cultural -
Kerne, Kooperation Und Konkurrenz. Kernforschung In
Wissenschaft, Macht und Kultur in der modernen Geschichte Herausgegeben von Mitchell G. Ash und Carola Sachse Band 3 Silke Fengler Kerne, Kooperation und Konkurrenz Kernforschung in Österreich im internationalen Kontext (1900–1950) 2014 Böhlau Verlag Wien Köln Weimar The research was funded by the Austrian Science Fund (FWF) : P 19557-G08 Bibliografische Information der Deutschen Nationalbibliothek: Die Deutsche Nationalbibliothek verzeichnet diese Publikation in der Deutschen Nationalbibliografie; detaillierte bibliografische Datensind im Internet über http://dnb.d-nb.de abrufbar. Umschlagabbildung: Zusammentreffen in Hohenholte bei Münster am 18. Mai 1932 anlässlich der 37. Hauptversammlung der deutschen Bunsengesellschaft für angewandte physikalische Chemie in Münster (16. bis 19. Mai 1932). Von links nach rechts: James Chadwick, Georg von Hevesy, Hans Geiger, Lili Geiger, Lise Meitner, Ernest Rutherford, Otto Hahn, Stefan Meyer, Karl Przibram. © Österreichische Zentralbibliothek für Physik, Wien © 2014 by Böhlau Verlag Ges.m.b.H & Co. KG, Wien Köln Weimar Wiesingerstraße 1, A-1010 Wien, www.boehlau-verlag.com Alle Rechte vorbehalten. Dieses Werk ist urheberrechtlich geschützt. Jede Verwertung außerhalb der engen Grenzen des Urheberrechtsgesetzes ist unzulässig. Lektorat: Ina Heumann Korrektorat: Michael Supanz Umschlaggestaltung: Michael Haderer, Wien Satz: Michael Rauscher, Wien Druck und Bindung: Prime Rate kft., Budapest Gedruckt auf chlor- und säurefrei gebleichtem Papier Printed in Hungary ISBN 978-3-205-79512-4 Inhalt 1. Kernforschung in Österreich im Spannungsfeld von internationaler Kooperation und Konkurrenz ....................... 9 1.1 Internationalisierungsprozesse in der Radioaktivitäts- und Kernforschung : Eine Skizze ...................... 9 1.2 Begriffsklärung und Fragestellungen ................. 10 1.2.2 Ressourcenausstattung und Ressourcenverteilung ......... 12 1.2.3 Zentrum und Peripherie ..................... 14 1.3 Forschungsstand ........................... 16 1.4 Quellenlage ............................. -
In Honour of Marie Sklodowska-Curie
health and prosperity throughout the world". It will continue to "ensure, so far as it is able, that assistance provided by it or at its request or under its super vision or control is not used in such a way as to further any military purpose". IN HONOUR OF MARIE SKLODOWSKA-CURIE This year marks the hundredth anniversary of the birth in Poland of Marie Sklodowska-Curie, originator of the word "radioactivity", whose early research in the subject has had far-reaching consequences for the nuclear sciences. The Government of Poland's arrangements for marking the occasion include an international symposium, restoration of her house in Warsaw, publications and films, and the Agency is happy to collaborate. This article from a distinguished Austrian scientist indicates how her work was carried out in an atmosphere of co-operation between scientists of many nations. By Dr. Berta Karlik (The author has been since 1945 Director of the Institute for Radium Research and Nuclear Physics, Austrian Academy of Sciences, where she succeeded Professor Stefan Meyer. A graduate of Vienna Uni versity and member of a number of learned societies, she has produced many scienti fic papers, including one published in 1944 dealing with the occurrence in nature of element 85, Astatine. This element was the last in the atomic table to be identified and occurs naturally only in minute quantities. It was first produced artificially by E.C.Segre, D.R.Corson and K.R.Mac- Kenzie in 1940 at the University of Cali fornia). The fact that the International Atomic Energy Agency has established its headquarters in Vienna prompts one to consider briefly, on the occasion of the 100th anniversary of Marie Curie's birth, the important part played by 18 Austria, and particularly by the Academy of Sciences in Vienna, in the dis coveries of this great scientist and in the further development of her work. -
SMI) for Subatomic Physics
AAAuuussstttrrriiiaaannn AAAcccaaadddeeemmmyyy ooofff SSSccciiieeennnccceeesss Annual Report 2008 Stefan Meyer Institute (SMI) for Subatomic Physics REPORTING PERIOD: 1.1.2008 – 31.12.2008 DIRECTOR OF THE REPORTING Prof. Dr. Eberhard Widmann RESEARCH INSTITUTION: ADDRESS: Boltzmanngasse 3, 1090 Wien Contents Mission Statement ...................................................................................................................................... 1 1. Scientific Activity 2008 ..................................................................................................................... 3 1.1. Zusammenfassung des wissenschaftlichen Berichts 2008 ............................................................................................. 3 1.2. Summary of the scientific report 2008 .................................................................................................................................... 5 1.3. Report on the scientific activity during 2008 ........................................................................................................................ 7 1.3.1. FS1_A: Kaon‐Nucleon Interaction: Kaonic atoms and kaonic nuclei .................................................................. 8 1.3.1.1. FS1_b_A: Kaonic hydrogen and deuterium: SIDDHARTA ................................................................................ 9 1.3.1.2. FS1_b_b: SIDDHARTA: Joint Research Activity 10 in I3 Hadron Physics .............................................. 11 1.3.1.3. FS1_c: Deeply bound kaonic -
Karl Przibram: Radioactivity, Crystals, and Colors
Phys. Perspect. 21 (2019) 163–193 Ó 2019 The Author(s) This article is an open access publication 1422-6944/19/030163-31 https://doi.org/10.1007/s00016-019-00242-z Physics in Perspective Karl Przibram: Radioactivity, Crystals, and Colors Wolfgang L. Reiter* Karl Przibram is one of the pioneers of early solid state physics in the field of the inter- dependence of coloration effects and luminescence in solids (crystals, minerals) induced by radiation. In 1921 Przibram discovered the effect of radio-photoluminescence, the light- stimulated phosphorescence in activated crystals induced by gamma rays. In 1926 Przibram was the first to use the term, Farbzentrum (color center, F-center), and in 1923 he advanced the view of atomic centers as carriers of coloration. Being a pupil of Ludwig Boltzmann and Franz S. Exner, he dedicated his early work to condensation and conductivity phenomena in gases and Brownian motion. Under the influence of Stefan Meyer, he began his lifelong interest in mineralogy, setting up his own research group at the Vienna Radium Institute, which pioneered investigations on thermoluminescence and gave a first description of glow curves. Being of Jewish descent, Przibram had to leave Austria after the Nazis took power; he found shelter in Belgium and returned to Austria in 1946 as professor for experimental physics at the University of Vienna. This paper is a first attempt to give an overview of the cultural and scientific background of Przibram’s life and science in context of the cultural and political developments from 1900 to 1950 in Austria. Key words: Biography; mineral physics; coloration effects and luminescence in solids; Ludwig Boltzmann; Franz S. -
Use Meitner Looks Back
"Of those 'principally involved1 the Soviet Union tential destructive power of the world's atomic stock must, of course, be one. piles; third, allow all peoples of all nations to see that, in this enlightened age, the great Powers of the "I would be prepared to submit to the Congress earth, both of the East and of the West, are interested of the United States, and with every expectation of in human aspirations first rather than in building up approval, any such plan that would, first, encourage the armaments of war; fourth, open up a new channel world-wide investigation into the most effective for peaceful discussion and initiative at least a new peacetime uses of fissionable material, and with the approach to the many difficult problems that must be certainty that the investigators had all the material solved in both private and public conversations if the needed for the conducting of all experiments that world is to shake off the inertia imposed by fear and were appropriate; second, begin to diminish the po- is to make positive progress towards peace. " USE MEITNER LOOKS BACK At the invitation of the Agency, Professor Lise was that life need not be easy provided only it was not Meitner gave recollections of her career in a lecture empty. And this wish I have been granted. That life in Vienna on 20 September 1963. She spoke as follows: has not always been easy - the First and Second World Wars and their consequences have seen to Though I may try and tell you something of the that - while for the fact that it has indeed been full I development of physics since the beginning of our have to thank the wonderful development ,of physics century, I can naturally give you no kind of connected during my lifetime and the great and lovable person or comprehensive report. -
Neutrino Physics by Lothar Oberauer and Caren Hagner
Nuclear Physics Nuclear Physics News is published on behalf of the Nuclear Physics European Collaboration Commit- tee (NuPECC), an Expert Committee of the Euro- pean Science Foundation, with colleagues from News Europe, America, and Asia. Volume 15/No. 1 Editor: Gabriele-Elisabeth Körner Editorial Board J. D’Auria, Vancouver W. Kutschera, Vienna R. F. Casten, Yale M. Leino, Jyväskylä T. W. Donnelly, MIT Cambridge R. Lovas, Debrecen A. Eiró, Lisbon S. Nagamiya, Tsukuba M. Huyse, Leuven (Chairman) G. van der Steenhoven, Amsterdam Editorial Office: Physikdepartment, E12, Technische Universitat München, 85748 Garching, Germany, Tel: +49 89 2891 2293, +49 172 89 15011, Fax: +49 89 2891 2298, E-mail: [email protected] Correspondents Argentina: O. Civitaresse, La Plata; Australia: A. W. Thomas, Adelaide; Austria: H. Oberhummer, Vienna; Belgium: C. Angulo, Louvain-la-Neuve; Brasil: M. Hussein, São Paulo; Bulgaria: D. Balabanski, Sofia; Canada: J.-M. Poutissou, TRIUMF; K. Sharma, Manitoba; C. Svensson, Guelph; China: W. Zhan, Lanzhou; Croatia: R. C˘aplar, Zagreb; Czech Republic: J. Kvasil, Prague; Slovak Republic: P. Povinec, Bratislava; Denmark: K. Riisager, Århus; Finland: M. Leino, Jyväskylä; France: G. De France, GANIL Caen; B. Blank, Bordeaux; M. Guidal, IPN Orsay; Germany: K. D. Gross, GSI Darmstadt; K. Kilian, Jülich; K. Lieb, Göttingen; Greece: E. Mavromatis, Athens; Hungary: B. M. Nyakó, Debrecen; India: D. K. Avasthi, New Delhi; Israel: N. Auerbach, Tel Aviv; Italy: E. Vercellin, Torino; M. Ripani, Genova; L. Corradi, Legnaro; D. Vinciguerra, Catania; Japan: T. Motobayashi, RIKEN; H. Toki, Osaka; Malta: G. Buttigieg, Kalkara; Mexico: J. Hirsch, Mexico DF; Netherlands: G. Onderwater, KVI Groningen; T. -
Ani APRAHAMIAN High Precision Mass Measurements of Nuclei And
Fakultät für Physik Stefan-Meyer-Institut Isotopenphysik für subatomare Physik E I N L A D U N G zum gemeinsamen V E R A – S M I – S E M I N A R von Ani APRAHAMIAN A. Alikhanyan National Laboratory of Armenia and Institute of Structure & Nuclear Astrophysics University of Notre Dame, Notre Dame, Indiana, USA High Precision Mass Measurements of Nuclei and the Neutron Star Merger The US science academies report on “Connecting Quarks to the Cosmos'' identified eleven of the most challenging open questions for all of physics in the 21st century. One of these eleven questions included the identification of the site(s) for the production of the heaviest elements found in nature: How were elements Fe to U made? Most of the elements above Fe in the periodic table are thought to have been produced by either the slow (s-process) or rapid (r-process) capture of neutrons in astrophysical environments. The s-process proceeds close to stability and astrophysical sites have been identified, while the r-process allows the production of nuclei much further from stability and potential sites remain mostly unresolved. The recent observation of gravitational waves from two neutron star mergers simultaneously with the spectroscopy indicated that rare earth elements were made in this so-called kilonova event. The questions remain, are there enough such mergers? Are mergers the only source of r-process elements ? This seminar will address the role of nuclear physics measurements, specifically the high precision measurement of nuclear masses and their role in understanding this potential site for the synthesis of the elements from Fe to U. -
ESI NEWS Volume 3, Issue 2, Autumn 2008
The Erwin Schrodinger¨ International Boltzmanngasse 9/2 Institute for Mathematical Physics A-1090 Vienna, Austria ESI NEWS Volume 3, Issue 2, Autumn 2008 Editorial final report of the evaluation was sent to the Austrian Ministry of Science in June 2008. Contents Klaus Schmidt Apart from praising the quality of the Editorial 1 programmes which had taken place at the The 15th anniversary Nobel Prize in Physics 2008 2 ESI during the past five years, he review the ESI in April 2008 panel noted that the Institute had ‘gen- Metastability and Rare Events in was an occasion not tly and wisely’ increased its scope of the Complex Systems 4 only for celebration, programmes in recent years, into areas of but also for an evalu- pure mathematics more remote at present Josef Stefan, Josef Loschmidt and ation of the Institute’s Stigler’s Law 7 from theoretical physics, and into areas of performance over the physics and biology beyond those usually Remarks on Boltzmann’s Philoso- past 5 years and its characterized as mathematical physics. The phy 8 scope for future development. panel felt that this process should be con- The previous evaluation of the ESI ESI News 12 tinued in the same judicious fashion as in in 2003 had been chaired by Nigel recent years. Current and Future Activities of Hitchin (Oxford), who had recruited as The report also contains a number of the ESI 13 co-evaluators Robbert Dijkgraaf (Ams- terdam), Jurgen¨ Jost (Leipzig), Nicolai recommendations for the development of Schrodinger¨ Lectures 2008/2009 15 Reshetikhin (Berkeley) and Vincent Ri- the ESI over the next years. -
The Academy of Sciences in Vienna 1938 to 1945 Austrian Academy of Sciences Johannes Feichtinger, Herbert Matis, Stefan Sienell, Heidemarie Uhl (Eds.)
JOHANNES FEICHTINGER, HERBERT MATIS, STEFAN SIENELL, HEIDEMARIE UHL (EDS.) THE ACADEMY OF SCIENCES IN VIENNA 1938 TO 1945 AUSTRIAN ACADEMY OF SCIENCES JOHANNES FEICHTINGER, HERBERT MATIS, STEFAN SIENELL, HEIDEMARIE UHL (EDS.) The Academy of Sciences in Vienna 1938 to 1945 together with Silke Fengler Translation from German: Nick Somers, Cynthia Peck-Kubaczek Translation of the exhibition catalog Johannes Feichtinger, Herbert Matis, Stefan Sienell, Heidemarie Uhl (eds.) Die Akademie der Wissenschaften in Wien 1938 bis 1945. Katalog zur Ausstellung (Vienna 2013). ISBN 978-3-7001-7367-0 Illustrations on the cover: Background: ÖNB, Bildarchiv, Sign. L32608C Seal: AÖAW, Siegelsammlung British Library Cataloguing in Publication data A Catalogue record of this book is available from the British Library Printed on chlorine-free bleached cellulose, acid free, non-ageing paper Alle Rechte vorbehalten / All rights reserved ISBN 978-3-7001-7537-7 Copyright © 2014 by Österreichische Akademie der Wissenschaften / Austrian Academy of Sciences Wien / Vienna Gesamtherstellung / produced by: Ferdinand Berger & Söhne Ges.m.b.H., A-3580 Horn http://hw.oeaw.ac.at/7537-7 http://verlag.oeaw.ac.at Printed and bound in the EU Table of Contents Table of Contents Preface to the English edition (The Editors).................................................... 7 Preface (Helmut Denk) .................................................................................. 9 I. THE “ANSCHLUSS” AND NAZI RULE .............................................. 11 The “Anschluss” -
A TRIBUTE to LISE MEITNER (1878-1968) Llhenk Kubbinga – University of Groningen (The Netherlands) – DOI
FEATURES A TRIBUTE TO LISE MEITNER (1878-1968) l Henk Kubbinga – University of Groningen (The Netherlands) – DOI: https://doi.org/10.1051/epn/2019402 Physics is irresistible. Though prepared to become a teacher of French at an Austrian highschool, Lise Meitner, daughter of a lawyer, could not help coming under the spell of physics. By lucky coincidence she followed courses dispensed by no one less than Ludwig Boltzmann, whose wit and humour proved contagious. After her PhD, under Franz Exner, she moved on, not to Paris to work with Marie Curie, but to Berlin, to consult with Max Planck on future contingencies. Before leaving for Berlin, however, she was introduced to ‘radioactivity’ by Stefan Meyer. m The Kaiser Radioactivity anno 1905; Vienna extremely active, elements were in the game (Po, Ra). Wilhelm Institute The supposed Röntgen-rays produced by uranyl, Moreover, there were huge amounts of energy for Chemistry, a uranium salt, had been identified by Marie Curie involved. Thorium minerals appeared to be even Berlin-Dahlem (courtesy: Archives Skłodowska (1897-1898) to be an entirely new kind more ‘radioactive’ than pure uranium. Rutherford also of the Max-Planck- of spontaneous radiation by minerals, one that could noticed the material nature of part of the radiation: a Gesellschaft, Berlin). be blocked by heaps of aluminium foil-sheets. In fact current of air, caused by an open door, was enough to there were two kinds at stake: one of these radiations disturb the discharging of an electroscope. Were atoms needed but a few sheets, the other several more. a kind of ‘polymers’ of α-particles and ‘radioactivity’ Rutherford called them α- and β-rays, respectively. -
From Radium to Antihydrogen
1910 2016 From Radium to Antihydrogen – A brief history of the Institute for Radium Research Walter Kutschera Vienna Environmental Research Accelerator (VERA) Faculty of Physics – Isotope Research and Nuclear Physics University of Vienna Meeting of the Alumni Club of the Japan Society for the Promotion of Science (JSPS) Stefan Meyer Institute for Subatomic Physics, Vienna, 12 February 2016 Physics and Chemistry of the University of Vienna Monument for Carl Auer von Welsbach Antoine Henri Becquerel Marie Sklodowska-Curie Pierre Curie (1852-1908) (1867-1934) (1859-1906) Discovery of the spontaneous Discovery of Polonium and Radium radioactivity of Uranium (1896) in Uranium ore (1898) Nobel Prize in Physics 1903 Radioactivity research from 1900 to 1910 Research was conducted mainly in Paris (Marie and Pierre Curie) and at McGill and Manchester University (Ernest Rutherford) What happed in Vienna? Eduard Suess Carl Auer von Welsbach (1831 – 1914) (1858-1929) In 1904, the geologist Eduard Suess, then president of the Royal Academy of Sciences in Vienna, authorized the chemist, inventor and entrepreneur Auer von Welsbach to extract Radium from 10,000 kg of Uranium ore tailings from Joachimsthal in Bohemia (now Jachymov, Czech Republic) in a plant in Atzgersdorf near Vienna, where Auer von Welsbach normally produced gas incandescent light units. By 1908, ~3 g Radium had been extracted Already at that time the Academy gave 300 mg Ra ‘on loan’ to Ernest Rutherford Karl Kupelwieser (1841-1925) In 1908, Dr. Karl Kupelwieser, a lawer, industrialists, and philanthropist, donated half a million Crowns (~ 5 million Euros) to the Royal Academy of Sciences to build an “Institute for Radium Research” in Vienna.