N. Ueda, M. Taya
This study presents a novel percolation model combined with the Monte Carlo method to evaluate the effective electrical conductivity of two-dimensionally misoriented short fiber composites. The primary objective was to compute the threshold fiber length (Lth) for composites ranging from completely random to reasonably well-oriented fiber arrangements. Numerical simulations were carried out to assess how misorientation influences conductivity, with results indicating significant increases in electrical conductivity post the threshold fiber length, ultimately stabilizing at a constant value. This work contributes to the understanding of the relationships among fiber orientation and electrical properties in composite materials, addressing a gap in the existing frameworks for predicting conductivity in misoriented conductive short fiber composites. Findings are pivotal for developing advanced polymer-matrix composite materials for applications in electronics, particularly in enhancing EMI shielding capabilities, thereby facilitating the broader adoption of lightweight, flexible conductive materials in modern housing designs for electronic devices.
@article{86393a9e-fcf2-4637-8671-2e0af94b7ce2,
title={ICCM5 V1 127},
author={N. Ueda and M. Taya},
year={2026},
language={en}
}TY - JOUR TI - ICCM5 V1 127 AU - N. Ueda AU - M. Taya PY - 2026 LA - en ER -
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