A a Line of Shakespeare, 39 A. B. Pippard, 30 ABO3, 108 Abrikosov

Total Page:16

File Type:pdf, Size:1020Kb

A a Line of Shakespeare, 39 A. B. Pippard, 30 ABO3, 108 Abrikosov Index A Brown University, 47 A line of Shakespeare, 39 Busch, 120 A. B. Pippard, 30 ABO3, 108 C Abrikosov lattice, 18 C. N. Yang and T. D. Lee, 32 Academy of Science of the Soviet Union, 11 Cambridge, 68 Adlai Stevenson, 75 Canadian General Electric, 57 Alex Malozemoff, 115, 121 Cardiff, 67 Alex Müller, 106 Casimir, 24 Aluminium oxide, 60, 63 Cellular machinery, 38 Amazing science, 134 Centennial of superconductivity, vi Anderson, 36 Ceramic materials, 117 Anderson and Rowell, 70 Charlie Bean, 60 Anderson localisation, 74 Charlie Slichter, 36 Anderson murder mystery theorem, 85 Childhood experiences, 133 Anderson-Higgs mechanism, 129 Children’s dreams, 19 Atom bomb semester, 119 Coherence factors, 47 Autobiography, 16 Coherence length, 10 Coherent state, 33 B Condensate field Ψ , 131 BaLaCuO, 108 Consciousness, 39 Bardeen, 33, 42, 45, 69 Cooling devices, 2 Battelle Memorial Institute, 118 Cooper pair tunnelling, 67 BCM-theory, 37 Cooper-pairs, 5 BCS team, 46, 78 Crick and Watson, 48 BCS theory, 5, 68 Critical current, 23 BCS-paper, 42 Critical field, 23 Bernd Matthias, 73, 77 Crystallography, 103 Bessemer, 19 Bill Huntington, 59 D Bill Little, 13, 99 d-wave and p-wave superfluid, 73 Biographical notes, vii d-wave in He3, 80 Bohr and Mottelson, 49 Dave Bohm, 78 Boundary between living and unliving, 38 David Pines, 78 Brian Josephson, 81 de Gennes, 70 Brian Pippard, 69, 81 de Haas, 24 Bronx High School of Science, 31 Debye frequency, 35 K. Fossheim, Superconductivity: Discoveries and Discoverers, 137 DOI 10.1007/978-3-642-36059-6, © Springer-Verlag Berlin Heidelberg 2013 138 Index Debye temperature, 48 Grand Écoles, 100 Decoration experiments, 27 Grandes Écoles, 91 Democratic Party, 75 Granular matter, 90 Dimitri Abrikosov, 28 Gravitational red-shift, 68 Dirty superconductor, 74 Green’s functions, 26 Dzyaloshinskii, 18 Gregory Wannier, 77 Gutzwiller projection, 84 E Guy Deutscher, 97, 121 ECG, 116 École Normale, 92 H Edison, 19 H , 25 Electrical engineering, 44 c2 Ham radio, 43 Electron transport through a barrier, 54 Hans Bueckner, 58 Electronics physics, 76 Hans Jörg Scheel, 105 Elias Burstein, 61 Harry Thomas, 104, 122 Eliashberg theory, 80 Endure hardship, 133 Harvard, 74 Energy gap, 60 Harwell, 68 Eric Courtens, 122 Hebel and Slichter, 47 Essmann and Träuble, 27 Heike Kamerlingh Onnes, v, 1 Étienne Guyon, 95 Heini Gränicher, 106 Heini Rohrer, 104 F Helium, 2 Fascination, 134 Higgs boson, 5, 129 Fermi sea, 33 Higgs mechanism, vi, 43, 129 Ferroelectricity, 77 Higgs-generated mass, 131 Feynman, 5, 17, 26, 46 High Temperature Superconductivity, 13 Flux-quantization, 69 High-Tc, 51 Forerunners, v Holy grail, 36 Francis Low, 45 Hubbard model, 85 Francis Wheeler Loomis, 74 Hydrogen bomb, 133 Fritz and Heinz London, 4 Fusion bomb, 27 I Fusion process, 28 IBM Thomas J. Watson Lab, 121 IBM Zurich Research Laboratory, 105 G Idea of the order parameter, 14 G. Busch, 118 Illinois, 36 Galileo, 38 Ilya Frank, 27 Gauge invariance, 48, 73 Inspiration, 133 Gauge invariant, 35 Institute for Power Engineering, 20 Gauge symmetry breaking, 43 General Electric, 54 Institute of Advanced Study at Princeton, 29 General Electric course, 58 Ivar Giaever, 6, 71 Gerd Binnig, 106 Giaever tunnelling, 6 J Gilles Holst, 1 Jahn-Teller, 99 Ginzburg, 27, 123 Jahn-Teller polaron, 108, 120 Ginzburg-Landau, 97 Jim Phillips, 98 Ginzburg-Landau equation, 25 John Atkins, 71 Ginzburg-Landau theory, 5, 12, 22, 23 John Bardeen, 29 Global phase-stiffness, 129 John Fisher, 59 God Particles, 135 John Rowell, 82 Goldstone mode, 130 Josephson, 37 Goldstone theorem, 87 Josephson effects, 6, 67 Gorkov, 18 Josephson equations, 49 Index 139 K Non-perturbed interaction, 48 Kapitza, 10, 20, 28 Normal state correlations, 51 kappa, 23 Norwegian Institute of Technology, 53 Karl Megerle, 61, 63 Norwegian University of Science and Kazan, 11 Technology, 53 KGB, 24, 28 Nuclear bombs, 20 Khalatnikov, 18, 22 Nuclear group, 21 Kondo effect, 45 Kondo problem, 84 O Korean wartime, 44 On the subway, 47 One-dimensional system, 13 L Oppenheimer, 32, 77 LaBaCuO, 111 Order parameter, 9 lambda point, 15 Orsay, 97 Landau, 21, 26 Oxford, 68 Landau expansion, 10 P Landau group, 4 Pair correlations, 94 Landau theory, 14 Pairing approximation, 46 Lars Onsager, 46 Pairing condensate, 51 Leggett, 16 Pairing idea, 36 Lenin, 19 Pandora’s box, 2 Leo Esaki, 59 Parameter kappa, 15 LHC facility, 115 Paul Chu, 112, 124 Liquid crystals, 90, 96 Paul Lauterburg, 60 Liquid helium, 15 Penicillin, 31 λ London penetration depth , 4, 34 Perfect diamagnetism, 3 Los Alamos, 75 Perovskite materials, 104 Perovskites, 118 M Persistent phenomenon, 4 Mafia, 76 Phase coherence, 85 Manufacturing engineer, 56 Phase difference, 69 March meeting, 35, 49 Phase transitions, 118 Masaaki Takashige, 110 Phil Anderson, 68 Mathematics, 19 Philippe Nozières, 79 Matthew effect, 82 Phonon mechanism, 48 McMillan, 96 Phonons in lead, 83 Meissner effect, 3 Physics of a Lifetime, 16 Meissner-Ochsenfeld effect, 4 Physics Today, 70 Mendelssohn’s sponge, 24 Pierre Aigrain, 92 Michael Faraday, 19 Pierre Morel, 79 Michael Tinkham, 122 Pinning, 25 MIT, 43 Polaron model, 107 Mössbauer effect, 68 Popular lecturing, 100 MRI, 126 Postwar Norway, 54, 57 Princeton, 78 N Pseudospins, 68 Nambu, 87 psi-function, 9 National High Magnetic Field Laboratory psi-theory of superconductors, 13 (NHMFL), 42, 51 Naval Research Lab, 75, 76 R Neutron diffraction, 27 Radio engineer, 119 Neutron stars, 134 Random phase approximation, 78 Niels Bohr Institute, 42 Raufoss Ammunitions Factory, 56 NMR, 48 Raveau, 104, 108 140 Index Recognition, 35 Tamm, 11 Rennsselear Polytechnic Institute, 59 Tanaka, 104, 124 Renormalization group, 83 TCNQ, 99 Resonance Valence Bond, 84 Ted Geballe, 77 Risk, 107 Theoretical minimum, 17, 21 Robert Ochsenfeld, 3 Thinking big, 45 Robert Serber, 32 Tinkham and Glover, 47 Rockets, 43 Tom Lehrer, 74, 76 Rosetta stone, 19 Tomonaga, 47 Royal Society, 19 Tomonaga approach, 42 RVB-theory, 74 Transformers, 126 Transistor, 36, 133 S Trinity College, 82 Santa Barbara, 51 Trondheim, 56 Scaling, 90 Truman, 75 Schafroth, 15 Tsarist Russia, 10 Schenectady, 58 Tunable Higgs-condensate, 130 Scherrer, 120 Tunnelling, 6, 61 Schrieffer, 33 Tunnelling microscope, 65 Schwinger, 74, 76 Type II superconductor, 5, 18 Second World War, 46 Self-made man, 58 U Semiconductor surface physics, 44 U(1)-symmetry, 130 Shubnikov, 24 University of Illinois, 42, 44 Siemens, 126 University of Oslo, 55 Singularities, 25 University of Pennsylvania, 49 Smolukovskii, 93 Unsuccessful experiments, 71 Soviet H-bomb, 9 Spin glass, 74 V SQUID, 6 Very high Tc, 51 SQUID magnetometer, 110 Vision, 64 SrTiO3, 104, 109, 120 Vitaly Ginzburg, 4 Stalin era, 9 Vortex lattice, 6 Stalin Prize, 19 Vortex liquids, 27 Standard Model, 130 Vortex matter, 27 Stripe domains, 119 Strong magnetic fields, 14 W Success, 46 Wabash College, 74 Superconducting transition temperature, Tc, 2 Walter Kohn, 77 Superconductivity, 59 Walther Meissner, 3 Superconductors of the second kind, 18 Weak coupling approximation, 35 Superexchange, 79 Weak link, 83 Superfluid, 129 Westinghouse Science Talent, 31 Superfluid helium, 94 Woodstock of physics, 7 Superfluidity, 12 Surface energy, 14, 23 Y Symmetry breaking, 134 Yorktown Heights, 115 “Symmetry-restoration” in extreme type-II, 131 Z Zavaritsky, 22 T Zeitschrift für Physik, 123 Takashige, 124 Ziman, 68 Tallahassee, 51 Zlatko Tesanovic, 135.
Recommended publications
  • Igor Tamm 1895 - 1971 Awarded the Nobel Prize for Physics in 1958
    Igor Tamm 1895 - 1971 Awarded the Nobel Prize for Physics in 1958 The famous Russian physicist Igor Evgenievich Tamm is best known for his theoretical explanation of the origin of the Cherenkov radiation. But really his works covered various fields of physics: nuclear physics, elementary particles, solid-state physics and so on. In about 1935, he and his colleague, Ilya Frank, concluded that although objects can’t travel faster than light in a vacuum, they can do so in other media. Cherenkov radiation is emitted if charged particles pass the media faster than the speed of light ! For this research Tamm together with his Russian colleagues was awarded the 1958 Nobel Prize in Physics. Igor Tamm was born in 1895 in Vladivostok when Russia was still ruled by the Tsar. His father was a civil engineer who worked on the electricity and sewage systems. When Tamm was six years old his family moved to Elizavetgrad, in the Ukraine. Tamm led an expedition to He graduated from the local Gymnasium in 1913. Young Tamm dreamed of becoming a revolutionary, but his father disapproved . However only his mother was able to convince him to search for treasure in the Pamirs change his plans. She told him that his father’s weak heart could not take it if something happened to him. In 1923 Tamm was offered a teaching post at the Second Moscow University and later he was And so, in 1913, Tamm decided to leave Russia for a year and continue his studies in Edinburgh. awarded a professorship at Moscow State University.
    [Show full text]
  • Vortex-Matter in Multi-Component Superconductors
    Vortex-matter in Multi-component Superconductors JOHAN CARLSTRÖM Licentiate thesis Stockholm, Sweden 2012 TRITA-FYS 2012:90 ISSN 0280-316X KTH Teoretisk fysik ISRN KTH/FYS/--12:90--SE AlbaNova universitetscentrum ISBN 978-91-7501-611-5 SE-106 91 Stockholm Sweden Akademisk avhandling som med tillstånd av Kungl Tekniska högskolan framlägges till offentlig granskning för avläggande av teknologie licentiatexamen i teoretisk fysik den 14 Januari 2013 kl 10:00 i sal FA32, AlbaNova Universitetscentrum. c Johan Carlström, December 2012 Tryck: Universitetsservice US AB 3 Abstract The topic of this thesis is vortex-physics in multi component Ginzburg- Landau models. These models describe a newly discovered class of supercon- ductors with multiple superconducting gaps, and posses many properties that set them apart from single component models. The work presented here relies on large scale computer simulations using various numerical techniques, but also some analytical methods. In Paper I, Type-1.5 Superconducting State from an Intrinsic Proximity Effect in Two-Band Superconductors, we show that in multiband supercon- ductors, even an extremely small interband proximity effect can lead to a qualitative change in the interaction potential between superconducting vor- tices by producing long-range intervortex attraction. This type of vortex interaction results in an unusual response to low magnetic fields, leading to phase separation into domains of two-component Meissner states and vortex droplets. In paper II, Type-1.5 superconductivity in multiband systems: Effects of interband couplings, we investigate the appearance of Type-1.5 superconduc- tivity in the case with two active bands and substantial inter-band couplings.
    [Show full text]
  • Magnetic Vortices in Gauge/Gravity Duality
    Magnetic Vortices in Gauge/Gravity Duality Dissertation by Migael Strydom Magnetic Vortices in Gauge/Gravity Duality Dissertation an der Fakult¨atf¨urPhysik der Ludwig{Maximilians{Universit¨at M¨unchen vorgelegt von Migael Strydom aus Pretoria M¨unchen, den 20. Mai 2014 Dissertation submitted to the faculty of physics of the Ludwig{Maximilians{Universit¨atM¨unchen by Migael Strydom supervised by Prof. Dr. Johanna Karen Erdmenger Max-Planck-Institut f¨urPhysik, M¨unchen 1st Referee: Prof. Dr. Johanna Karen Erdmenger 2nd Referee: Prof. Dr. Dieter L¨ust Date of submission: 20 May 2014 Date of oral examination: 18 July 2014 Zusammenfassung Wir untersuchen stark gekoppelte Ph¨anomene unter Verwendung der Dualit¨at zwischen Eich- und Gravitationstheorien. Dabei liegt ein besonderer Fokus einer- seits auf Vortex L¨osungen, die von einem magnetischem Feld verursacht werden, und andererseits auf zeitabh¨angigen Problemen in holographischen Modellen. Das wichtigste Ergebnis ist die Entdeckung eines unerwarteten Effektes in einem ein- fachen holografischen Modell: ein starkes nicht abelsches magnetisches Feld verur- sacht die Entstehung eines Grundzustandes in der Form eines dreieckigen Gitters von Vortices. Die Dualit¨at zwischen Eich- und Gravitationstheorien ist ein m¨achtiges Werk- zeug welches bereits verwendet wurde um stark gekoppelte Systeme vom Quark- Gluonen Plasma in Teilchenbeschleunigern bis hin zu Festk¨orpertheorien zu be- schreiben. Die wichtigste Idee ist dabei die der Dualit¨at: Eine stark gekoppelte Quantenfeldtheorie kann untersucht werden, indem man die Eigenschaften eines aus den Einsteinschen Feldgleichungen folgenden Gravitations-Hintergrundes be- stimmt. Eine der Gravitationstheorien, die in dieser Arbeit behandelt werden, ist ei- ne Einstein{Yang{Mills Theorie in einem AdS{Schwarzschild Hintergrund mit SU(2)-Eichsymmetrie.
    [Show full text]
  • Presentation Kluwer Online
    Presentation Kluwer Online http://www.kluweronline.com By Walter Montenarie Licensing Manager [email protected] Kluwer Online http://www.kluweronline.com Contents Presentation • Introduction • e-Journals • e-Reference Works • e-Books • Consortium contracts Introduction www.kluweronline.com • Who are we? Online Journals • Facts & figures Reference • Imprints Works • Nobel Prize winners • Current issues eBooks Consortium Contracts Kluwer Online Accelerating the World of Research [email protected] Introduction – Who are we? http://www.kluweronline.com Kluwer Academic Publishers • An international publishing organization active across a broad spectrum of academic and professional fields. • Our goal is provide dedicated service to researchers, scientists and academics through high-quality STM print and online content distribution. • We are involved with sharing scientific content through the WHO’s HINARI and AGORA programs. • We have a prestigious Russian program acquired as part of our 1998 purchase of Plenum Publishers. Introduction – Facts & Figures http://www.kluweronline.com Kluwer Academic Publishers • 1200 New (print) books per year • 13,000 Backlist book titles • More than 200 book series • Printing on Demand • Over 650 Print/Electronic journals • 750+ e-Book Titles (100 new each year) • 7 e-Reference Works Introduction – Imprints http://www.kluweronline.com Publishers Imprints: • Kluwer Academic Publishers • Kluwer Academic/Plenum Publishers • Kluwer Academic/Human Sciences Press • Kluwer Academic/Baltzer Science Publishers
    [Show full text]
  • 50 31-01-2018 Time: 60 Min
    8thAHMED BIN ABOOD MEMORIAL State Level Physics-Maths Knowledge Test-2018 Organized by Department of Physics Department of Mathematics Milliya Arts, Science and Management Science College, BEED Max. Marks: 50 31-01-2018 Time: 60 min Instructions:- All the questions carry equal marks. Mobile and Calculators are not allowed. Student must write his/her names, college name and allotted seat number on the response sheet provided. Student must stick the answer in the prescribed response sheet by completely blacken the oval with black/blue pen only. Incorrect Method Correct Method Section A 1) If the earth completely loses its gravity, then for any body……… (a) both mass and weight becomes zero (b) neither mass nor weight becomes zero (c) weight becomes zero but not the mass (d) mass becomes zero but not the weight 2) The angular speed of a flywheel is 3π rad/s. It is rotating at…….. (a) 3 rpm (b) 6 rpm (c) 90 rpm (d) 60 rpm 3) Resonance occurs when …. (a) a body vibrates at a frequency lower than its normal frequency. (b) a body vibrates at a frequency higher than its normal frequency. (c) a body is set into vibrations with its natural frequency of another body vibrating with the same frequency. (d) a body is made of the same material as the sound source. 4) The SI unit of magnetic flux density is…… (a) tesla (b) henry (c) volt (d) volt-second 5) Ampere’s circuital law is integral form of….. (a) Lenz’s law (b) Faraday’s law (c) Biot-Savart’s law (d) Coulomb’s law 1 6) The energy band gap is highest in the case of …….
    [Show full text]
  • Theory of Nematic Fractional Quantum Hall State
    Theory of Nematic Fractional Quantum Hall State Yizhi You,1 Gil Young Cho,1 and Eduardo Fradkin1, 2 1Department of Physics and Institute for Condensed Matter Theory, University of Illinois at Urbana-Champaign, 1110 West Green Street, Urbana, Illinois 61801-3080, USA 2Kavli Institute for Theoretical Physics, University of California Santa Barbara, CA 93106-4030, USA (Dated: July 9, 2018) We derive an effective field theory for the isotropic-nematic quantum phase transition of fractional quantum Hall (FQH) states. We demonstrate that for a system with an isotropic background the low-energy effective theory of the nematic order parameter has z = 2 dynamical scaling exponent, due to a Berry phase term of the order parameter, which is related to the non-dissipative Hall viscosity. Employing the composite fermion theory with a quadrupolar interaction between electrons, we show that a sufficiently attractive quadrupolar interaction triggers a phase transition from the isotropic FQH fluid into a nematic fractional quantum Hall phase. By investigating the spectrum of collective excitations, we demonstrate that the mass gap of Girvin-MacDonald-Platzman (GMP) mode collapses at the isotropic-nematic quantum phase transition. On the other hand, Laughlin quasiparticles and the Kohn collective mode remain gapped at this quantum phase transition, and Kohn’s theorem is satisfied. The leading couplings between the nematic order parameter and the gauge fields include a term of the same form as the Wen-Zee term. A disclination of the nematic order parameter carries an unquantized electric charge. We also discuss the relation between nematic degrees of freedom and the geometrical response of the fractional quantum Hall fluid.
    [Show full text]
  • Photon Mapping Superluminal Particles
    EUROGRAPHICS 2020/ F. Banterle and A. Wilkie Short Paper Photon Mapping Superluminal Particles G. Waldemarson1;2 and M. Doggett2 1Arm Ltd, Sweden 2 Lund University, Sweden Abstract One type of light source that remains largely unexplored in the field of light transport rendering is the light generated by superluminal particles, a phenomenon more commonly known as Cherenkov radiation [C37ˇ ]. By re-purposing the Frank-Tamm equation [FT91] for rendering, the energy output of these particles can be estimated and consequently mapped to photons, making it possible to visualize the brilliant blue light characteristic of the effect. In this paper we extend a stochastic progressive photon mapper and simulate the emission of superluminal particles from a source object close to a medium with a high index of refraction. In practice, the source is treated as a new kind of light source, allowing us to efficiently reuse existing photon mapping methods. CCS Concepts • Computing methodologies ! Ray tracing; 1. Introduction in the direction of the particle but will not otherwise cross one an- other, as depicted in figure 1. However, if the particle travels faster In the late 19th and early 20th century, the phenomenon today than these spheres the waves will constructively interfere, generat- known as Cherenkov radiation were predicted and observed a num- ing coherent photons at an angle proportional to the velocity of the ber of times [Wat11] but it was first properly investigated in 1934 particle, similar to the propagation of a sonic boom from supersonic by Pavel Cherenkov under the supervision of Sergey Vavilov at the aircraft. Formally, this occurs when the criterion c0 = c < v < c Lebedev Institute [C37ˇ ].
    [Show full text]
  • Appeal from the Nuclear Age Peace Foundation to End the Nuclear Weapons Threat to Humanity (2003)………………………………………..……...26
    Relevant Appeals against War and for Nuclear Disarmament from Scientific Networks 1945- 2010 Reiner Braun/ Manuel Müller/ Magdalena Polakowski Russell-Einstein-Manifesto (1955)……………..…..1 The first Pugwash Conferenec (1957)………..……4 The Letter from Bertrand Russell to Joseph Rotblat (1956)………………………………..……...6 „Göttinger 18“ (1957)…………………………..…..8 Hiroshima Appeal (1959)………………………..…9 Linus Pauling (1961)…………………………..…..10 The Call to Halt the Nuclear Arms Race (1980)………………..…..11 The Göttingen Draft Treaty to Ban Space Weapons (1984)…………………………………………….....15 Appeal by American Scientists to Ban Space Weapons (1985)………………………………..…..16 The Hamburg Disarmament Proposals (1986)…………………………………………..…...17 Hans A. Bethe to Mr. President (1997)………..…18 Appeal from Scientists in Japan (1998)……….....20 U.S.Nobel laureates object to preventive attack on Iraq (2003)……………………………………...….25 Appeal from the Nuclear Age Peace Foundation to end the nuclear weapons threat to humanity (2003)………………………………………..……...26 Appeal to support an International Einstein Year (2004)……………………………………………….28 Scientists for a Nuclear Weapons Free World, INES (2009)…………………………..……………31 Milan Document on Nuclear Disarmament (2010)……………………..34 Russell-Einstein-Manifesto (1955) 1 Russell-Einstein-Manifesto (1955) In the tragic situation which confronts humanity, we feel that scientists should assemble in conference to appraise the perils that have arisen as a result of the development of weapons of mass destruction, and to discuss a resolution in the spirit of the appended draft. We are speaking on this occasion, not as members of this or that nation, continent, or creed, but as human beings, members of the species Man, whose continued existence is in doubt. The world is full of conflicts; and, overshadowing all minor conflicts, the titanic struggle between Communism and anti-Communism.
    [Show full text]
  • The Discovery of Cherenkov Radiation Roger Huang the Discovery of Cherenkov Radiation
    The Discovery of Cherenkov Radiation Roger Huang The Discovery of Cherenkov Radiation Roger Huang April 22, 2020 1/18 Cherenkov's Scientific Beginnings The Discovery of Cherenkov Pavel Alekseevich Cherenkov began postgraduate studies Radiation at the Institute for Physics and Mathematics in Leningrad Roger Huang in 1930, and began working under direct supervision of Sergei Ivanovich Vavilov in 1932 This institute was transformed into the Lebedev Institute in Moscow in 1934, with Vavilov as director Cherenkov chose to study the luminescence of uranyl salt solutions under the gamma-ray radiation of radium 2/18 Investigating Luminescence The Discovery of Cherenkov Radiation Roger Huang Lumniscence is a weak glow caused when molecules are excited by some external source and then release light when decaying back to their ground state after some finite time This glow is weak, close to the human visibility threshold, and photomultipliers had not yet been developed Vavilov and Brumberg had developed the optical wedge method to quantify this glow, featuring the human eye has the measuring instrument 3/18 The Experimental Setup The Discovery of Cherenkov Radiation Vessel 1 contains the salt Roger Huang solutions under study, with slots for radium samples to be inserted below and to the side A Glan prism at 6 is used to measure polarization An optical wedge (opaque on one side and transparent on the other) is inserted into 4, moving perpendicular to this figure’s plane, to absorb some portion of the light 4/18 The Experimental Procedure The Discovery
    [Show full text]
  • Lsu-Physics Iq Test 3 Strikes You're
    LSU-PHYSICS IQ TEST 3 STRIKES YOU'RE OUT For Physics Block Party on 9 September 2016: This was run where all ~70 people start answering each question, given out one-by-one. Every time a person missed an answer, they made a 'strike'. All was done with the Honor System for answers, plus a fairly liberal statement of what constitutes a correct answer. When the person accumulates three strikes, then they are out of the game. The game continue until only one person was left standing. Actually, there had to be one extra question to decide a tie-break between 2nd and 3rd place. The prizes were: FIRST PLACE: Ravi Rau, selecting an Isaac Newton 'action figure' SECOND PLACE: Juhan Frank, selecting an Albert Einstein action figure THIRD PLACE: Siddhartha Das, winning a Mr. Spock action figure. 1. What is Einstein's equation relating mass and energy? E=mc2 OK, I knew in advance that someone would blurt out the answer loudly, and this did happen. So this was a good question to make sure that the game flowed correctly. 2. What is the short name for the physics paradox depicted on the back of my Physics Department T-shirt? Schroedinger's Cat 3. Give the name of one person new to our Department. This could be staff, student, or professor. There are many answers, for example with the new profs being Tabatha Boyajian, Kristina Launey, Manos Chatzopoulos, and Robert Parks. Many of the people asked 'Can I just use myself?', with the answer being "Sure". 4. What Noble Gas is named after the home planet of Kal-El? Krypton.
    [Show full text]
  • Media Highlights
    2008 Applied Superconductivity Conference and Exhibition August 17 – 22. 2008 Hyatt Regency Chicago – Chicago, IL USA MEDIA HIGHLIGHTS Conference Website: http://www.ascinc.org PRESS REGISTRATION Members of the media may register by faxing a registration form (found at www.ascinc.org) to ASC 2008 Press at (303) 499- 2599, or register on-site at the Registration desk, located in the North Grand Ballroom Foyer of the Hyatt Regency Chicago. Journalists will be asked to show press credentials/ID to receive complimentary admission to technical sessions, welcome reception and exhibitor’s reception, and Exhibition Hall. Conference program, badges and other conference materials will be available at the registration desk. Tickets for the Thursday conference luncheon may also be purchased at the desk. On-site Press Registration: North Grand Ballroom Foyer – Hyatt Regency Chicago Hours of Operation: Sunday, August 17: 2:00 p.m. – 8:00 p.m. Monday, August 18: 7:00 a.m. – 7:00 p.m. Tuesday, August 19: 7:00 a.m. – 6:00 p.m. Wednesday, August 20: 7:00 a.m. – 6:00 p.m. Thursday, August 21: 7:00 a.m. – 6:00 p.m. Friday, August 22: 7:00 a.m. – 12:00 Noon (For media assistance and additional information, please ask for Dr. Balu Balachandran, Mr. Jim Kerby, Dr. Lance Cooley, Ms. Sue Butler, or Mrs. Paula Pair. Individual interview rooms may also be scheduled.) PLENARY AND OTHER SPECIAL SESSIONS Monday, August 18, 8:00 a.m. - 9:00 a.m. Welcome – Dr. Balu Balachandran, Argonne National Laboratory (Conference Chair); Opening Remarks – Dr.
    [Show full text]
  • RUSSIAN SCIENCE and TECHNOLOGY STRUCTURE There Are Around 4000 Organizations in Russia Involved in Research and Development with Almost One Million Personnel
    RUSSIAN SCIENCE AND TECHNOLOGY STRUCTURE There are around 4000 organizations in Russia involved in research and development with almost one million personnel. Half of those people are doing scientific research. It is coordinated by Ministry of industry, science and technologies, where strategy and basic priorities of research and development are being formulated. Fundamental scientific research is concentrated in Russian Academy of Sciences, which now includes hundreds of institutes specializing in all major scientific disciplines such as mathematics, physics, chemistry, biology, astronomy, Earth sciences etc. The applied science and technology is mainly done in Institutions and Design Bureaus belonging to different Russian Ministers. They are involved in research and development in nuclear energy (Ministry of atomic energy), space exploration (Russian aviation and space agency), defense (Ministry of defense), telecommunications (Ministry of communications) and so on. Russian Academy of Sciences Russian Academy of Sciences is the community of the top-ranking Russian scientists and principal coordinating body for basic research in natural and social sciences, technology and production in Russia. It is composed of more than 350 research institutions. Outstanding Russian scientists are elected to the Academy, where membership is of three types - academicians, corresponding members and foreign members. The Academy is also involved in post graduate training of students and in publicizing scientific achievements and knowledge. It maintains
    [Show full text]