Electron-Hole Liquid Model for High Tc-Superconductors

  • A. Kallio
  • X. Xiong
Part of the Condensed Matter Theories book series (COMT, volume 6)

Abstract

We propose a theoretical model for high-T c superconductivity based on the existence of two types of mobile charge carriers: electrons and hole-bosons. The bosons are assumed to be mobile in CuO2 planes and the electrons in separate parts of the crystal in order to prevent annihilation. We simulate this situation with a uniform mixture of electrons and bosons by adding a short-range repulsion between them. The model predicts the existence of a linear electronic sound mode which is analogous to the first sound in He-mixtures. The electron component contributes a linear term and the sound mode a cubic term in the electronic specific heat. The transition at Tc is interpreted as a λ—transition whereas the pairs are formed at a higher temperature TBCS- For small hole concentrations the charge carriers form an excitonic bound state of heavy fermion type which is immobile and hence provides an explanation for metal-insulator transition. The model predicts also the doping behaviour in agreement with experiment including the pressure dependence of T c. The specific heat linear term is predicted to increase with pressure for hole doped and to decrease for electron doped superconductors. The predictions are valid for all types of high T c-compounds and also for the new electron superconductors. The value of normalized slope of specific heat discontinuity at T c can exceed the maximum values obtainable by the BCS-and Eliashberg theories.

Keywords

Attenuation Helium Coherence Compressibility Dial 

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Copyright information

© Springer Science+Business Media New York 1991

Authors and Affiliations

  • A. Kallio
    • 1
  • X. Xiong
    • 1
  1. 1.Department of Theoretical PhysicsUniversity of OuluOulu 57Finland

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