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 -
Unknown, Unknown
This chapter discusses metal casting processes, highlighting the diversity and common characteristics among them. The objective is to elucidate the fu
Unknown, Unknown
This study focuses on the fundamental characteristics of solid iron, which is predominantly composed of iron atoms and provides a basis for understand
Ir. Méshac KIME ILUNGA
Ce document traite des procédés métallurgiques spéciaux, en mettant particulièrement l'accent sur l'extraction liquide-liquide, un processus mis au po