Lattice model for percolation on a plane of partially aligned sticks with length dispersity
Avik P. Chatterjee, Yuri Yu. Tarasevich

TL;DR
This paper introduces a lattice model for continuum percolation of partially aligned, length-disperse sticks in 2D, analyzing how alignment and length variability influence the percolation threshold.
Contribution
The study develops a lattice-based model for percolation with partially aligned, length-unequal sticks, providing analytical predictions validated by simulations.
Findings
Percolation threshold increases with alignment at fixed length distribution.
Percolation threshold decreases with length dispersity at fixed orientation.
Threshold depends on first and second moments of length distribution and orientation details.
Abstract
A lattice-based model for continuum percolation is applied to the case of randomly located, partially aligned sticks with unequal lengths in 2D which are allowed to cross each other. Results are obtained for the critical number of sticks per unit area at the percolation threshold in terms of the distributions over length and orientational angle and are compared with findings from computer simulations. Consistent with findings from computer simulations, our model shows that the percolation threshold is (i) elevated by increasing degrees of alignment for a fixed length distribution, and (ii) lowered by increasing degrees of length dispersity for a fixed orientational distribution. The impact of length dispersity is predicted to be governed entirely by the first and second moments of the stick length distribution, and the threshold is shown to be quite sensitive to particulars of the…
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Taxonomy
TopicsStochastic processes and statistical mechanics · Theoretical and Computational Physics · advanced mathematical theories
