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Superconductivity:     more books (100)

Leading-Edge Superconductivity Research Developments Superconductivity Sourcebook by V. Daniel Hunt, 1989-01 Room-Temperature Superconductivity by Andrei Mourachkine, 2004-01-01 Handbook of Applied Superconductivity, 2 Volume Set High Temperature Superconductivity (Graduate Texts in Contemporary Physics / Maryland Subseries: Based on Lectures at the University of Maryland, College Park) Superconductivity by J. B. Ketterson, S. N. Song, 1999-01-12 Connectivity and Superconductivity (Lecture Notes in Physics Monographs) Microwave Superconductivity (NATO SCIENCE SERIES: E: Volume 375) Applied Sciences by Harold Weinstock, 2002-01-31 Theory of Nonequilibrium Superconductivity (The International Series of Monographs on Physics) by Nikolai Kopnin, 2009-07-15 How Did We Find Out About Superconductivity (Asimov, Isaac, How Did We Find Out-- Series.) by Isaac Asimov, 1988-03 Superconductivity Volume I (Vol. 1) by R. D. Parks, 1969-04-01 Introduction to Superconductivity, Second Edition (International Series in Solid State Physics; V. 6) by A C ROSE-INNES, 1978-01-15 Magnetism and Superconductivity (Theoretical and Mathematical Physics) by Laurent-Patrick Levy, 2010-11-02 Novel Superconductivity by Stuart A. Wolf, Vladimir Z. Kresin, 1987-10-01

lists with details

21. Superconductivity (Science Tracer Bullet - Science Reference Services, Library O
    superconductivity Science Tracer Bullets Research Finding Aids from the Library of Congress, Science Reference Services.  
    http://www.loc.gov/rr/scitech/tracer-bullets/superconducttb.html

22. When Superconductivity Became Clear (to Some) - New York Times
    Jan 8, 2008 Fifty years ago, a paper appeared in the journal Physical Review with an answer to a physics puzzle superconductivity.  
    http://www.nytimes.com/2008/01/08/science/08super.html
    
    Extractions: @import url(http://graphics.nytimes.com/css/common/screen/article.css); var google_hints = "Superconductors,Physics,Science+and+Technology,Nobel+Prizes,Bell+Laboratories"; var google_ad_channel = "ar_science"; Skip to article Associated Press Leon N. Cooper, John Bardeen and J. Robert Schrieffer in 1972. By KENNETH CHANG Published: January 8, 2008 Correction Appended Skip to next paragraph Graphic Superconductivity was discovered in 1911 by a Dutch physicist, Heike Kamerlingh Onnes. He observed that when mercury was cooled to below minus-452 degrees Fahrenheit, about 7 degrees above absolute zero, electrical resistance suddenly disappeared, and mercury was a superconductor. For physicists, that was astounding, almost like happening upon a real-world perpetual motion machine. Indeed, an electrical current running around a ring of mercury at 7 degrees above absolute zero would, in principle, run forever. If the phenomenon defied intuition, it also defied explanation.

23. Physica C Superconductivity And Its Applications - Elsevier
    Physica C (superconductivity and its Applications) serves as a rapid channel for publications on superconductivity, its applications and related subjects.  
    http://www.elsevier.com/locate/physc
    
    Extractions: Home Site map Elsevier websites Alerts ... Physica C: Superconductivity and its Applications Journal information Product description Editorial board Audience Abstracting/indexing ... Peer Review Policy Subscription information Bibliographic and ordering information Combined subscriptions Conditions of sale Dispatch dates Journal-related information Contact the publisher Impact factor Most downloaded articles Other journals in same subject area ... Select your view PHYSICA C: SUPERCONDUCTIVITY AND ITS APPLICATIONS Physica C (Superconductivity and its Applications) serves as a rapid channel for publications on superconductivity, its applications and related subjects. The journal contains papers on the theoretical issues of superconductivity, reports on measurements of a wide variety of physical properties of superconducting materials as well as the phenomena occurring in the vortex state of type-II superconductors. In the Applied Superconductivity section articles on all aspects of superconductivity relevant to applications are published. Large-scale applications (power and high magnetic fields), superconducting electronics and materials research aimed at such applications are included, with special emphasis on the physical background, studied both experimentally and theoretically.

24. IRC In Superconductivity, University Of Cambridge - Department Of Physics Main I
    Graduate lecture timetable, details of research and PhD studentships, and a list of publications.  
    http://www.phy.cam.ac.uk/research/sucon/

25. Superconductivity Laboratory At The University Of Oslo
    811.5 Basic Research Needs for superconductivity Workshop at Argonne and 8.10-8.12 Workshop on Nanoscale superconductivity at Argonne Y.Galperin  
    http://www.fys.uio.no/super/

26. Solid State And Superconductivity Abstracts
    Solid State and superconductivity Abstracts provides global coverage on all aspects of theory, production, and application of solid state materials and  
    http://www.csa.com/factsheets/solid-state-set-c.php
    
    Extractions: Classification Codes Solid State and Superconductivity Abstracts Solid State and Superconductivity Abstracts provides global coverage on all aspects of theory, production, and application of solid state materials and devices - as well as the new high- and low-temperature superconductivity technology, now highlighted in every issue. Some of the topics covered are phase, crystal, and mechanical properties of solids, optical and dielectric properties, conductive and magnetic properties, exotic electronic structure and energy gaps, SQUIDs, impurity effects, flux structures and critical current, ceramics, twinning phenomena, and more. This database provides international coverage as well as coverage of numerous non-serial publications.

27. CRPP Superconductivity - Home Page
    CRPP superconductivity, Section of the Center for Research in Plasma Physics of the Swiss Federal Institute of Technology Lausanne, participating in EURATOM  
    http://crppsc.web.psi.ch/

28. Gordon Research Conferences - 2007 Program (Superconductivity)
    superconductivity transcends the limits of traditional condensed matter physics. In fields where BCS theory is relevant (e.g. cold atoms, quark matter),  
    http://www.grc.org/programs.aspx?year=2007&program=supercon

29. The Lemberger Superconductivity Laboratory
    Our research focuses on superconductivity in high temperature superconducting cuprates. In particular, we are interested in the physics of thermal and  
    http://www.physics.ohio-state.edu/~trl/group/
    
    Extractions: Our research focuses on superconductivity in high temperature superconducting cuprates. In particular, we are interested in the physics of thermal and quantum phase fluctuations, the superconductor-to-insulator transition, Abrikosov vortices, and the symmetry of the superconducting order parameter. The group makes and studies films and crystals of high-temperature superconductors. Films are made by codeposition with postannealing, sputtering, and pulsed laser deposition. Important measurements include resistivity and magnetic penetration depth as functions of temperature and magnetic field. Contact Information:

30. The Superconductivity Information Center And High-Tc Update
    Latest superconductivity research, upcoming conferences, and technology news. Large searchable database. Archives of our longrunning, well-respected  
    http://www.iitap.iastate.edu/htcu/
    
    Extractions: Our Sponsors: The High-Tc Superconductivity Information Center and High-Tc Update newsletter were started in April 1987 as a short-term solution for a crisis situation: the need to communicate frequentalmost dailybreakthroughs in high-Tc superconductivity. Over the years, it became a successful model for how research results can be very effectively communicated. NOTE : Our final Nota Bene calls attention to 99 papers (including two review articles) in the December preprint list. Also included are links to stories about (a) the 2003 Nobel Prizes related to superconductivity, (b) the costs of the cancellation of the SSC ten years ago, (c) two recent publications reporting Bose-Einstein condensation of molecules consisting of pairs of fermions, (d) two disconnected superconducting domes in the pressure-temperature phase diagram of partially germanium-substituted CeCu Si , and (e) 9.6 K superconductivity in KOs

31. LANL: Superconductivity Technology Center
    superconductivity Technology Center at Los Alamos National Laboratory.  
    http://www.lanl.gov/orgs/mpa/stc/
    
    Extractions: Melissa Martinez TA-03, Bdg. 0032, Rm. 141A AC_FL_RunContent( 'codebase','http://download.macromedia.com/pub/shockwave/cabs/flash/swflash.cab#version=6,0,29,0','width','420','height','170','src','images/stc','quality','high','pluginspage','http://www.macromedia.com/go/getflashplayer','movie','images/stc' ); //end AC code The Superconductivity Technology Center (STC) coordinates a multidisciplinary program for research, development, and technology transfer in the area of high-temperature superconductivity. Our focus is on effective collaborations with American industry, universities, and other national laboratories to develop electric power and electronic device applications of high-temperature superconductors (HTS). Outstanding scientific research projects underpin our international leadership position and provide the basis for technical advances. Applied research and development efforts include powder synthesis, tape/coil processing, thin/thick film deposition, characterization of microstructural and superconducting properties, power cryogenic engineering, and prototype devices.

32. Ghost Of Superconductivity On A Fall Day | Physical Review Focus
    Magnetic measurements hint at vestiges of superconductivity near room temperaturefar too warm for the full superconducting phenomenon to exist.  
    http://focus.aps.org/story/v13/st19
    
    Extractions: @import "/files/css/efc6c1e68c820f4ef3dd2d5cfb7ae405.css"; @import "/sites/default/themes/focus/page-node.css"; Previous Story Next Story Volume 13 archive Phys. Rev. B (issue of April 2004) Title and Authors Alan Hewat / Institut Laue-Langevin Super structure. When some of the lanthanum atoms (blue) in La CuO are replaced with strontium atoms, the material conducts electricity without resistance up to about 40 kelvin. But even at 290 kelvin, near room temperature, the material shows some possible hints of the superconducting state. Materials that conduct electricity without resistance continue to surprise physicists. In the April Physical Review B , one of the so-called high-temperature superconducting (HTS) materials shows a magnetic effect typical of superconductivity even at the temperature of a cool autumn dayfar above its temperature for resistance-free current. The results reinforce other experiments suggesting that a "shadow" of the superconducting state exists even when the material appears normal and may give clues about the underlying causes of the HTS phenomenon. Superconductivity occurs if electrons form pairs when a material is cooled. These pairs can join to form a collective quantum mechanical state that extends throughout a chunk of material and carries electric current with no resistance. In "traditional" superconductors like aluminum, this state forms at the same ultra low temperature as the electron pairs do. By contrast, the HTS materials show indications of pairs even near room temperature but become superconducting only at much lower temperatures (though still warm compared with traditional superconductors). One model proposes that pairing occurs only in narrow "stripes," while resistance-free electric current is blocked by intervening stripes of magnetism [

33. Superconductivity -- From Eric Weisstein's World Of Physics
    Anderson, P. W. The Theory of superconductivity in the HighTc Cuprates. Princeton, NJ Princeton University Press, 1997.  
    http://scienceworld.wolfram.com/physics/Superconductivity.html
    
    Extractions: A phenomenon in which a substance loses all electrical resistance first discovered in metals at liquid helium temperatures by Kamerlingh-Onnes in 1911. The BCS theory does not appear capable of explaining the high-temperature phenomenon, although extending the phonon propagation with an s -wave may work. However, the most recent experiments seem to favor a new d -wave mechanism in which electrons are propagated by magnetic fluctuations (Clery 1996). Meissner Effect Anderson, P. W. The Theory of Superconductivity in the High-Tc Cuprates. Princeton, NJ: Princeton University Press, 1997. Burns, G. High-Temperature Superconductivity: An Introduction. Boston: Academic Press, 1992. Clery, D. "Closing in on Superconductivity." Science Cyrot, M. and Pavuna, D. Introduction to Superconductivity and High-Tc Materials. Singapore: World Scientific, 1992. Dahl, P. F. Superconductivity: Its Historical Roots and Development from Mercury to the Ceramic Oxides. New York: American Institute of Physics, 1992. Ginzberg, V. L. and Andyushin, E. A.

34. Hole Superconductivity
    The theory of hole superconductivity (also known in some circles as The holistic theory of superconductivity ) asserts that superconductivity can only  
    http://physics.ucsd.edu/~jorge/hole.html
    
    Extractions: The theory of hole superconductivity (also known in some circles as 'The holistic theory of superconductivity') asserts that superconductivity can only occur when 'hole' carriers exist in the normal state of a metal. A 'hole' is the absence of an electron, and hole carriers exist when an electronic energy band is almost full. Holes are different from electrons , as the picture to the right clearly shows. A hole in a full band has difficulty propagating due to the disruption it causes in its environment. Superconductivity occurs due to pairing of hole carriers, and is driven by the fact that paired holes can propagate more easily (have a smaller effective mass) than single holes. As a consequence, their kinetic energy is lowered. In contrast, single electrons can move easily and so they don't pair. ' Dynamic Hubbard models ' describe the different physics of electron and hole carriers in metals. The different mobility of holes and electrons can be illustrated by a garage analogy.

35. Superconductivity
    superconductivity is infinitely more than a physics phenomena of the first order. It may be one of the fundamental linking mechanisms in an unlimited and  
    http://www.halexandria.org/dward156.htm
    
    Extractions: Superconductivity is infinitely more than a physics phenomena of the first order. It may be one of the fundamental linking mechanisms in an unlimited and connected universe. The physics is referenced, for example, in the Scientific References , but for those looking for a quick and dirty explanation, the following will provide an inkling of the immensity of the subject. Just keep in mind that any U. S. patent application which includes anywhere in its text the word “superconductivity” is automatically sent to the Department of Defense for review. That should be convincing evidence that this subject is worth investigating. Most, but not all, conductors of electrical current, when cooled sufficiently in the direction of absolute zero (0 o K, -273.15 o C), become superconductors. The superconducting state itself is one in which there is zero electrical resistance and perfect diamagnetism. [1] This means that current flowing through a superconducting circuit does not experience i R heating (current squared times the resistance), and the current can flow indefinitely. Also, diamagnetism is the property of a substance to become magnetized in a direction at right angles to an applied magnetic field (Michael Faraday discovered the effect in 1846 that when such substances were brought near the pole of a strong magnet, they were

36. Center Of Superconductivity
    The BarIlan Institute of superconductivity. Welcome to the Institute of superconductivity. Department of Physics, Bar-Ilan University, Ramat-Gan 52900,  
    http://www.biu.ac.il/ESC/htslab/

37. The UBC Superconductivity Group
    superconductivity homepage, superconductivity Group UBC Department of Physics and Astronomy, UBC Crest. Introduction  
    http://www.physics.ubc.ca/~supercon/

38. MIT OpenCourseWare | Electrical Engineering And Computer Science | 6.763 Applied
    This course provides a phenomenological approach to superconductivity, with emphasis on superconducting electronics. Topics include electrodynamics of  
    http://ocw.mit.edu/OcwWeb/Electrical-Engineering-and-Computer-Science/6-763Fall-
    
    Extractions: skip to content Home Courses Donate ... Electrical Engineering and Computer Science Applied Superconductivity Superconducting Josephson qubit surrounded by a SQUID readout circuit. (Image by Terry Orlando.) This course features homework assignments lecture notes , and a complete set of reading assignments. This course provides a phenomenological approach to superconductivity, with emphasis on superconducting electronics. Topics include: electrodynamics of superconductors, London's model, flux quantization, Josephson Junctions, superconducting quantum devices, equivalent circuits, high-speed superconducting electronics, and quantized circuits for quantum computing. The course also provides an overview of type II superconductors, critical magnetic fields, pinning, the critical state model, superconducting materials, and microscopic theory of superconductivity. Special software is required to use some of the files in this course: .m Instructor:

39. SCG News Page
    A large link list of superconductivity data bases, free journals, papers and news, and university and institute sites by a Korean PhD. candidate.  
    http://superconductor.com.ne.kr/

40. Physics News Update 752
    Nov 2, 2005 Color superconductivity, the hypothetical condensation of quark pairs at the cores of superdense collapsed stars, might represent a unique  
    http://www.aip.org/pnu/2005/split/752-3.html
    
    Extractions: Number 752 November 2, 2005 by Phil Schewe and Ben Stein Color Superconductivity Color superconductivity, the hypothetical condensation of quark pairs at the cores of super-dense collapsed stars, might represent a unique example of superconductivity being made stronger, not weaker, by the presence of magnetism. In ordinary electrical superconductivity, in a metallic lattice of atoms, free electrons can pair up through the agency of a very weak coupling force mediated by the subtle vibrations in the lattice itself, establishing a weakly attractive force between pairs of electrons. An external magnetic field is either repelled from such a superconducting environment (the Meissner effect) or can serve to undo the fragile superconducting state. On the other hand, if quark matter is realized inside the core of neutron stars with densities about 10 times the density of ordinary atomic nuclei or within the still hypothetical quark stars objects ranking somewhere between neutron stars and black holes in terms of matter density quarks will be pressed together so firmly that by the rules of asymptotic freedom (see the description of last year's physics Nobel prize in PNU 703 ) the force between the quarks will be quite weak and attractive.

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