Edoardo Amaldi and Guido Pizzella
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Ninety Years of X-Ray Spectroscopy in Italy 1896-1986
Ninety years of X-ray spectroscopy in Italy 1896-1986 Vanda Bouché1,2, Antonio Bianconi1,3,4 1 Rome Int. Centre Materials Science Superstripes (RICMASS), Via dei Sabelli 119A, 00185Rome, Italy 2 Physics Dept., Sapienza University of Rome, P.le A. Moro 2, 00185 Rome, Italy 3 Institute of Crystallography of Consiglio Nazionale delle Ricerche, IC-CNR, Montero- tondo, Rome, Italy 4 National Research Nuclear University MEPhI (Moscow Engineering Physics Institute), Kashirskoeshosse 31, 115409 Moscow, Russia Ninety years of X-ray spectroscopy research in Italy, from the X-rays dis- covery (1896), and the Fermi group theoretical research (1922-1938) to the Synchrotron Radiation research in Frascati from 1963 to 1986 are here summarized showing a coherent scientific evolution which has evolved into the actual multidisciplinary research on complex phases of condensed mat- ter with synchrotron radiation 1. The early years of X-ray research The physics community was very quick to develop an intense research in Italy on X rays, after the discovery on 5th January, 1896 by Röngten in Munich. Antonio Garbasso in Pisa [1], and then in Rome Alfonso Sella, with Quirino Majorana, Pietro Blaserna and Garbasso, published several papers on Nuovo Cimento [2], starting the Italian experimental school on X-rays research in XIX century [3]. The focus was on the mechanism of the emission by the X-ray tubes, the nature of X-rays (wave or particles), the propagation characteristics in the matter, the absorption and diffusion. Cambridge and Edinburgh at the beginning of the XX century became the world hot spots of X-ray spectroscopy with Charles Barkla who demonstrated the electromagnetic wave nature of X-ray propagation in the vacuum, similar with light and Henry Moseley, who studied the X-ray emission spectra, recorded the X-ray emission lines of most of the elements of the Mendeleev atomic table. -
Fermi-Glast Rome U. Amaldi 9.5.11.Ppt
INFLUENCE OF FERMI AND HIS ROMAN GROUP ON NUCLEAR AND MEDICAL PHYSICS Ugo Amaldi Universitày Milano Bicocca and TERA Foundation Rome - 9.5.11 - U. Amaldi 1 Photo of a photo Enrico Fermi at 36 Edoardo Amaldi at 80 1936 1988 Rome - 9.5.11 - U. Amaldi 2 The discovery of neutron induced radioactivity Rome - 9.5.11 - U. Amaldi 3 January-March 1934 1933 Christmas holidays: Enrico Fermi and the other “ragazzi di Via Panisperna” at Santa Cristina March 1934: The Joliot-Curies discover artificial radioactivity induced by alfa particles The Institute of Via Panisperna Rome - 9.5.11 - U. Amaldi 4 1934 : Fermi discovery was made with a Be-Rn source. Radon extracted at Laboratorio Fisico della Sanità Pubblica The “Divine Providence” Rome - 9.5.11 - U. Amaldi 5 The third paper iodine isotopes used in nuclear medicine Rome - 9.5.11 - U. Amaldi 6 The efficacy of slow neutrons Rome - 9.5.11 - U. Amaldi 7 October 20, 1934 Rome - 9.5.11 - U. Amaldi 8 October 1934: discovery of artificial radioactivity induced by slow neutrons Discovery: Saturday 20.10.34 (*) First paper: Monday 22.10.34 Patent: Friday 26.10.34 (*) A. De Gregorio : not on October 22! O. D’Agostino E. Segrè E. Amaldi F. Rasetti E. Fermi Rome - 9.5.11 - U. Amaldi + B. Pontecorvo = The boys of Via Panisperna9 Writing the paper Emilio Segrè: “Enrico Fermi physicist” – 1970 Fermi dictated while I wrote. He stood by me; Rasetti, Amaldi and Pontecorvo paced the room excitedly, all making comments at the same time. The din was such that when we left, Amaldi’s maid discreetly asked whether the evening guests were tipsy. -
Ivanenko. Biography
The People of Physics Faculty Selected papers of the Journal “Soviet Physicist” 1998-2006 Dmitri Ivanenko. Scientific Biography 226 Dmitri Ivanenko (29.07.1904 - 30.12.1994), professor of Moscow State University (since 1943) , was one of the great theoreticians of XX century. He made the fundamental contribution to many areas of nuclear physics, field theory and gravitation theory. His outstanding achievements include: • The Fock - Ivanenko coefficients of parallel displacement of spinors in a curved space-time (1929) 1 . Nobel laureate Abdus Salam called it the first gauge theory. • The Ambartsumian - Ivanenko hypothesis of creation of massive particles which is a corner stone of contemporary quantum field theory (1930) 2 . • The proton-neutron model of atomic nuclei (1932) 3 . • The first shell model of nuclei (in collaboration with E. Gapon) (1932) 4 . • The first model of exchange nuclear forces by means of massive particles (in collaboration with I. Tamm) (1934) 5 . Based on this model, Nobel laureate H. Yukawa developed his meson theory. • The prediction of synchrotron radiation (in collaboration with I. Pomeranchuk) (1944) 6 and its classical theory (in collaboration with A. Sokolov). • Theory of hypernucleus (1956) 7 . • The hypothesis of quark stars (in collaboration with D. Kurdgelaidze) (1965) 8 . • The gauge gravitation theory (in collaboration with G. Sardanashvily), where gravity is treated as a Higgs field responsible for spontaneous breaking of space- 9 time symmetries (1983) . References 1. Fock V., Iwanenko D., Géometrie quantique linéaire et déplacement paralléle, Compt. Rend. Acad Sci. Paris 188 (1929) 1470. 2. Ambarzumian V., Iwanenko D., Les électrons inobservables et les rayons, Compt. -
The Charm of Theoretical Physics (1958– 1993)?
Eur. Phys. J. H 42, 611{661 (2017) DOI: 10.1140/epjh/e2017-80040-9 THE EUROPEAN PHYSICAL JOURNAL H Oral history interview The Charm of Theoretical Physics (1958{ 1993)? Luciano Maiani1 and Luisa Bonolis2,a 1 Dipartimento di Fisica and INFN, Piazzale A. Moro 5, 00185 Rome, Italy 2 Max Planck Institute for the History of Science, Boltzmannstraße 22, 14195 Berlin, Germany Received 10 July 2017 / Received in final form 7 August 2017 Published online 4 December 2017 c The Author(s) 2017. This article is published with open access at Springerlink.com Abstract. Personal recollections on theoretical particle physics in the years when the Standard Theory was formed. In the background, the remarkable development of Italian theoretical physics in the second part of the last century, with great personalities like Bruno Touschek, Raoul Gatto, Nicola Cabibbo and their schools. 1 Apprenticeship L. B. How did your interest in physics arise? You enrolled in the late 1950s, when the period of post-war reconstruction of physics in Europe was coming to an end, and Italy was entering into a phase of great expansion. Those were very exciting years. It was the beginning of the space era. L. M. The beginning of the space era certainly had a strong influence on many people, absolutely. The landing on the moon in 1969 was for sure unforgettable, but at that time I was already working in Physics and about to get married. My interest in physics started well before. The real beginning was around 1955. Most important for me was astronomy. It is not surprising that astronomy marked for many people the beginning of their interest in science. -
Antonino Cattaneo
ANTONINO CATTANEO Presidente European Brain Research Institute Roma [email protected] After obtaining a degree in biophysics, Antonino Cattaneo worked as a PhD student at the Scuola Normale Superiore (Pisa) with Lamberto Maffei and as a postdoc and staff scientist with Rita Levi-Montalcini (Nobel Laureate for the discovery of NGF) at the CNR Institute of Neurobiology in Rome. He later worked with Cesar Milstein (Nobel Prize laureate for the discovery of monoclonal antibodies) and Michael Neuberger at the MRC Laboratory of Molecular Biology (Cambridge, UK). From 1991 to 2008, he was Full Professor of Biophysics at the International School for Advanced Studies (SISSA) in Trieste (Italy), where he was Head of the Biophysics Department from 1991 to 1995 and the Deputy Director of SISSA from 1996 to 2001. Since 2008 he is Professor of Neurobiology at the Scuola Normale Superiore (Pisa), where he is also the Director of the Biology Lab Bio@SnS. Antonino Cattaneo is author of more than 200 publications in peer-reviewed international scientific journals and is recipient of several awards including Domenico Marotta Prize (Accademia Nazionale delle Scienze detta XL), the W. Jansenius Medal (Slovak Academy of Sciences) and the “G. Tartufari” International Prize for Biology (Accademia Nazionale dei Lincei). He is a member of EMBO (European Molecular Biology Organization) and member of the Accademia Nazionale delle Scienze detta XL, the Academia Europaea and of the Accademia Nazionale dei Lincei. Since 2018 he is President of the European Brain Research -
Edoardo Amaldi
Edoardo Amaldi Inventario sommario dell'archivio conservato presso il Dipartimento di fisica dell'Università La Sapienza di Roma 1927 – 1990 a cura di Giovanni Battimelli, Lucia Orlando e Giovanni Paoloni (1994) Informatizzazione e indicizzazione a cura di Nicoletta Valente svolte nel corso del 2015-2016 con il finanziamento della Direzione generale ArcHivi del Ministero dei beni culturali e ambientali e del turismo Sommario Premessa, cenni biografici, nota arcHivistica 1 Inventario 3 Indici dei nomi 73 Premessa Le carte di Amaldi, recuperate nel suo studio e in altri locali del Dipartimento di fisica dell'Università "La Sapienza" di Roma, in aggiunta al corposo versamento del 1991 da parte della famiglia Amaldi al Gruppo di storia della fisica, fanno dell'Archivio del grande fisico piacentino il maggiore tra gli archivi degli scienziati posseduti dall'Università di Roma. L'inventario sommario che segue è relativo ai fascicoli personali (1927-1990) prove- nienti dal Dipartimento e redatto dagli autori a metà degli anni '90. Il suo recupero in- formatico (tramite il software GEA.4 in uso presso il Dipartimento di fisica), lo Ha reso omogeneo alla gran parte dei fondi arcHivistici conservati presso il Dipartimento stesso.1 Cenni biografici Edoardo Amaldi nacque a Carpaneto Piacentino il 5 settembre 1908, figlio di Ugo Amal- di, professore universitario di Matematica. Fu tra i primi allievi di Enrico Fermi a Roma e fece parte del leggendario gruppo dei ''ragazzi di Via Panisperna'', nucleo originario del- la Scuola di Fisica romana. Tra i risultati più importanti ottenuti dal Gruppo romano, cui Amaldi contribuì attivamente, sono da ricordare gli studi pionieristici sulla radioattività e sulla fisica dei nuclei, cHe fecero guadagnare ai componenti del gruppo i più alti rico- noscimenti mondiali, culminati nel Nobel per la Fisica attribuito a Fermi nel 1938. -
Quantum Tunneling – TRIUMF Saturday Morning Lecture – March 28Th, 2008
Quantum Tunneling – TRIUMF Saturday Morning Lecture – March 28th, 2008 Patrick Bruskiewich Department of Physics and Astronomy, UBC & TRIUMF What we will look at ... The “Big Picture” behind the very small ... Feynman and “Room at the Bottom” – Think Small! Nanotechnology George Gamow and Quantum Tunneling I will be unconventional ! In talking about Quantum Tunneling I will talk about applications before I talk in any detail about the theory of Quantum Tunneling. Tunneling is a quantum effect and is only seen in structures nanometer or smaller in scale! The “Big Picture” behind the very small world of QM Why are we interested in Quantum Mechanics? Is it just because it is Weird and Interesting? How big a role does Quantum Mechanics play in our lives? How much wealth created in the past century draws from QM? A) 5 per cent B) 15 per cent C) 25 percent? A Surprising Answer! During the last 100 years, about 25 % of new wealth draws from Quantum Mechanics. st In this, the 21 century, we can expect upwards of 50% of new wealth to come from Quantum Mechanics! ... In Them hills ... In the past ... Today ... “there’s Silicon in them “there’s Gold in them Computer Chips!” hills!” CPU $ 300,000 /Troy Ounce! Au $ 800 / Troy Ounce. Nanotechnology in near future $ 30,000,000 / Troy Ounce Then and now ... Twenty years ago, 80% of computer chips used The recent economic in North America were down-turn is tied to made here (... 20% changes in international were imported). trade that can just as well be measured in the Today 20% of computer flow of computer chips. -
Soviet Science As Cultural Diplomacy During the Tbilisi Conference on General Relativity Jean-Philippe Martinez
Soviet Science as Cultural Diplomacy during the Tbilisi Conference on General Relativity Jean-Philippe Martinez To cite this version: Jean-Philippe Martinez. Soviet Science as Cultural Diplomacy during the Tbilisi Conference on General Relativity. Vestnik of Saint Petersburg University. History, 2019, 64 (1), pp.120-135. 10.21638/11701/spbu02.2019.107. halshs-02145239 HAL Id: halshs-02145239 https://halshs.archives-ouvertes.fr/halshs-02145239 Submitted on 2 Jun 2019 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. Вестник СПбГУ. История. 2019. Т. 64. Вып. 1 Soviet Science as Cultural Diplomacy during the Tbilisi Conference on General Relativity J.-P. Martinez For citation: Martinez J.-P. Soviet Science as Cultural Diplomacy during the Tbilisi Conference on General Relativity. Vestnik of Saint Petersburg University. History, 2019, vol. 64, issue 1, рp. 120–135. https://doi.org/10.21638/11701/spbu02.2019.107 Scientific research — in particular, military and nuclear — had proven during the Second World War to have the potential to demonstrate the superiority of a country. Then, its inter- nationalization in the post-war period led to its being considered a key element of cultural diplomacy. -
Catalogue 176
C A T A L O G U E – 1 7 6 JEFF WEBER RARE BOOKS Catalogue 176 Revolutions in Science THE CURRENT catalogue continues the alphabet started with cat. #174. Lots of new books are being offered here, including books on astronomy, mathematics, and related fields. While there are many inexpensive books offered there are also a few special pieces, highlighted with the extraordinary LUBIENIECKI, this copy being entirely handcolored in a contemporary hand. Among the books are the mathematic libraries of Dr. Harold Levine of Stanford University and Father Barnabas Hughes of the Franciscan order in California. Additional material is offered from the libraries of David Lindberg and L. Pearce Williams. Normally I highlight the books being offered, but today’s bookselling world is changing rapidly. Many books are only sold on-line and thus many retailers have become abscent from city streets. If they stay in the trade, they deal on-line. I have come from a tradition of old style bookselling and hope to continue binging fine books available at reasonable prices as I have in the past. I have been blessed with being able to represent many collections over the years. No one could predict where we are all now today. What is your view of today’s book world? How can I serve you better? Let me know. www.WeberRareBooks.com On the site are more than 10,000 antiquarian books in the fields of science, medicine, Americana, classics, books on books and fore-edge paintings. The books in current catalogues are not listed on-line until mail-order clients have priority. -
Booklet of Abstracts
SISFA 2015 XXXV Convegno della Società Italiana degli Storici della Fisica e dell’Astronomia Arezzo, 16-19 settembre 2015 Museo dei Mezzi di Comunicazione Via Ricasoli 22, Arezzo Topical sessions SISFA Advisory Committee Local Organizing Committee History of Light Gianni Battimelli - Università di Roma Sapienza Fausto Casi Science and World War I Fabrizio Bonoli - Università di Bologna Valentina Casi Paolo Brenni - CNR, Firenze, FST Salvatore Esposito Fausto Casi - Museo dei Mezzi di Comunicazione, Arezzo Leonardo Gariboldi Salvatore Esposito - INFN, Sezione di Napoli Lucio Fregonese - Università di Pavia Leonardo Gariboldi - Università degli Studi di Milano Massimo Mazzoni - SAIt Pasquale Tucci - Università degli Studi di Milano, fr. www.sisfa.org/convegni/xxxv-convegno-sisfa CENTRO UNESCO AREZZO DIPARTIMENTO Membro della Federazione Mondiale DI FISICA dei Clubs e Centri UNESCO XXXV Congresso Nazionale SISFA Arezzo, 16-19 Settembre 2015 Museo dei Mezzi di Comunicazione Introductory remarks The year 2015 abounds with anniversaries and initiatives which are very relevant for the history and public perception of science, physics and astronomy. The SISFA annual Congress keeps a special eye on the “History of Light” and on “Science and World War I” in connection with, respectively, the International Year of Light and Light-based Technologies (IYL 2015) and the centenary of Italy’s intervention in the first world conflict. No less important, the centenary of general relativity and the 70th anniversary of Hiroshima and Nagasaki are also considered, although not on the same scale and from particular perspectives such as the complex relation between light an gravitation in the period from Newton to Einstein and the new implications of nuclear energy. -
A Nature of Science Guided Approach to the Physics Teaching of Cosmic Rays
A Nature of Science guided approach to the physics teaching of Cosmic Rays Dissertation zur Erlangung des akademischen Grades Doktorin der Philosophie (Dr. phil. { Doctor philosophiae) eingereicht am Fachbereich 4 Mathematik, Naturwissenschaften, Wirtschaft & Informatik der Universit¨atHildesheim vorgelegt von Rosalia Madonia geboren am 20. August 1961 in Palermo 2018 Schwerpunkt der Arbeit: Didaktik der Physik Tag der Disputation: 21 Januar 2019 Dekan: Prof. Dr. M. Sauerwein 1. Gutachter: Prof. Dr. Ute Kraus 2. Gutachter: Prof. Dr. Peter Grabmayr ii Abstract This thesis focuses on cosmic rays and Nature of Science (NOS). The first aim of this work is to investigate whether the variegated aspects of cosmic ray research -from its historical development to the science topics addressed herein- can be used for a teaching approach with and about NOS. The efficacy of the NOS based teaching has been highlighted in many studies, aimed at developing innovative and more effective teaching strategies. The fil rouge that we propose unwinds through cosmic ray research, that with its century long history appears to be the perfect topic for a study of and through NOS. The second aim of the work is to find out what knowledge the pupils and students have regarding the many aspect of NOS. To this end we have designed, executed, and analyzed the outcomes of a sample-based investigation carried out with pupils and students in Palermo (Italy), T¨ubingenand Hildesheim (Germany), and constructed around an open-ended ques- tionnaire. The main goal is to study whether intrinsic differences between the German and Italian samples can be observed. The thesis is divided in three parts. -
Solitary Waves in the Nonlinear Dirac Equation
Solitary waves in the Nonlinear Dirac Equation Jesus´ Cuevas-Maraver, Nabile Boussa¨ıd, Andrew Comech, Ruomeng Lan, Panayotis G. Kevrekidis, and Avadh Saxena Abstract In the present work, we consider the existence, stability, and dynamics of solitary waves in the nonlinear Dirac equation. We start by introducing the Soler model of self-interacting spinors, and discuss its localized waveforms in one, two, and three spatial dimensions and the equations they satisfy. We present the associ- ated explicit solutions in one dimension and numerically obtain their analogues in higher dimensions. The stability is subsequently discussed from a theoretical per- spective and then complemented with numerical computations. Finally, the dynam- ics of the solutions is explored and compared to its non-relativistic analogue, which is the nonlinear Schrodinger¨ equation. Jesus´ Cuevas-Maraver Grupo de F´ısica No Lineal, Universidad de Sevilla, Departamento de F´ısica Aplicada I, Escuela Politecnica´ Superior. C/ Virgen de Africa,´ 7, 41011-Sevilla, Spain, Instituto de Matematicas´ de la Universidad de Sevilla (IMUS). Edificio Celestino Mutis. Avda. Reina Mercedes s/n, 41012-Sevilla, Spain e-mail: [email protected] Nabile Boussa¨ıd Universite´ de Franche-Comte,´ 25030 Besanc¸on CEDEX, France Andrew Comech St. Petersburg State University, St. Petersburg 199178, Russia Department of Mathematics, Texas A&M University, College Station, TX 77843-3368, USA IITP, Moscow 127994, Russia Roumeng Lan Department of Mathematics, Texas A&M University, College Station, TX 77843-3368, USA Panayotis G. Kevrekidis Department of Mathematics and Statistics, University of Massachusetts, Amherst, MA 01003- 4515, USA Avadh Saxena Center for Nonlinear Studies and Theoretical Division, Los Alamos National Laboratory, Los Alamos, New Mexico 87545, USA 1 2 J.