Superconductivity from commensurate flux phases
P. Lederer, D. Poilblanc, T. M. Rice
DOI 10.1103/PhysRevLett.63.1519 · Physical Review Letters
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Abstract
We use a renormalized mean-field theory of the t-J model to show that flux states closely related to those recently proposed by Anderson, Shastry, and Hristopoulos are stabilized, at values of J/t≳1, when the flux per plaquette is commensurate with the electron density in a way similar to that found recently for noninteracting electrons. These states (in the interacting t-J model) are characterized by a collective gauge variable which leads to superconductivity. At not too small values of J/t the state with half a flux quantum per plaquette is stable at low doping.
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