Physics – Condensed Matter – Disordered Systems and Neural Networks
Scientific paper
2005-06-07
Physics
Condensed Matter
Disordered Systems and Neural Networks
Phys Rev E (in press)
Scientific paper
10.1103/PhysRevE.72.016121
We study the distribution function, P(rho), of the effective resistance, rho, in two and three-dimensional random resistor network of linear size L in the hopping percolation model. In this model each bond has a conductivity taken from an exponential form \sigma ~ exp(-kappa r), where kappa is a measure of disorder, and r is a random number, 0< r < 1. We find that in both the usual strong disorder regime L/kappa^{nu} > 1 (not sensitive to removal of any single bond) and the extreme disorder regime L/kappa^{nu} < 1 (very sensitive to such a removal) the distribution depends only on L/kappa^{nu} and can be well approximated by a log-normal function with dispersion b kappa^nu/L, where b is a coefficient which depends on the type of the lattice
Berkovits Richard
Frydman Aviad
Havlin Shlomo
Strelniker Yakov M.
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