Transport phenomenology for a holon-spinon fluid
Abstract
We propose that the normal-state transport in the cuprate superconductors can be understood in terms of a two-fluid model of spinons and holons. In our scenario, the resistivity is determined by the properties of the holons while magnetotransport involves the recombination of holons and spinons to form physical electrons. Our model implies that the Hall transport time is a measure of the electron lifetime, which is shorter than the longitudinal transport time. This agrees with our analysis of the normal-state data. We predict a strong increase in linewidth with increasing temperature in photoemission. Our model also suggests that the AC Hall effect is controlled by the transport time.
Cite
@article{arxiv.cond-mat/9610075,
title = {Transport phenomenology for a holon-spinon fluid},
author = {Derek K. K. Lee and Patrick A. Lee},
journal= {arXiv preprint arXiv:cond-mat/9610075},
year = {2009}
}
Comments
4 pages, 1 postscript figure. Uses RevTeX, epsf, multicol