• CAS
  • |
  • C&EN
  • |
  • Journals
  • |
  • ACS

search site
Advanced Search »
  • Home
  • |
  • About CAS
    • 100th Anniversary Celebration
    • CAS Quotes
    • Colors of Chemistry
    • Careers at CAS
    • Contact Us
    • Directions to CAS
    • FAQs
  • |
  • Our Expertise
    • CAS Databases
    • Value Added Tools
    • Technical Service and Support
  • |
  • Solutions
    • Researchers
    • IP Professionals
    • Information Professionals
    • Academics
  • |
  • Products & Services
    • SciFinder
    • SciFinder Scholar
    • STN Family of Products
    • Science IP
    • CAS Client Services
    • CAS Document Detective Service
    • CD Products
    • Print Products
  • |
  • Support & Training
    • SciFinder
    • SciFinder Scholar
    • STN
    • STN Express
    • STN AnaVist
    • STN Viewer
    • STN on the Web
    • STN Easy
    • CAS Customer Care
  • |
  • News & Events
    • What's New
    • Press Room
    • News Releases
    • In the News
    • Trade Shows
  • CAS Science Spotlight Home
  • Most Cited Journal Articles 2001-Materials Science
  • About
  • What's New
Home   •   Spotlight  •  mschem01  •  Most Cited Journal Articles 2001-Materials Science (6)
Most Cited Journal Articles 2001-Materials Science
spotlightlogo.gif

Following is a CAS database record representing a highly cited journal article.


CAPLUS COPYRIGHT 2002 ACS

TITLE: Theory of superconductivity
AUTHOR(S): Bardeen, J.; Cooper, L. N.; Schrieffer, J. R.
CORPORATE SOURCE: Univ. of Illinois, Urbana
SOURCE: Phys. Rev. (1957), 108, 1175-1204
PUBLISHER: American Physical Society
LANGUAGE: English
ABSTRACT:
cf. C.A. 51, 15253f. A theory of supercond. is given, based on the attractive electron interactions from virtual phonon exchange for electron states differing by less than the phonon energy. These favor a superconducting phase when dominating the repulsive screened Coulomb interaction. The normal phase is described by the Bloch individual-particle model. The theory yields a 2nd-order phase transition and a Meissner effect in the Pippard form. Calcd. values of sp. heat and penetration depth and their temp. variation agree with expt. The energy gap goes from 3.5 kTc at 0.degree.K. to 0 at Tc. Matrix element tables for use with the theory are given.
 
Updated 4/30/2007 10:43:55 AM
Home  |  About CAS  |  Our Expertise  |  Solutions  |  Products & Services  |  Support  |  News & Events
Copyright © 2008 American Chemical Society