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Abstract <p>This study develops a micropolar thermoelastic model for porous media with temperature-dependent properties and rotation, solved via normal mode analysis within the framework of the Refined Lord–Shulman (RLS) hypothesis, which includes one thermal relaxation time. This analytical approach enables detailed investigation of how rotation, porosity, and temperature-dependent characteristics affect displacement, temperature distribution, microrotation, and stress fields. The results reveal that including temperature-dependent coefficients significantly alters waves behavior and stress distributions. The refined Lord–Shulman framework effectively captures finite-speed thermal wave propagation and relaxation phenomena, making the model applicable to advanced problems in geophysics, biomechanics, and aerospace engineering.</p>

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Thermoelastic Wave Propagation in Temperature-Dependent Micropolar Porous Media Based on the Refined Lord–Shulman Hypothesis

  • 期刊论文

  • 发表日期：

    2025年9月1日

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  • M. I. A. Othman,
  • E. M. Gamal

摘要

Abstract

This study develops a micropolar thermoelastic model for porous media with temperature-dependent properties and rotation, solved via normal mode analysis within the framework of the Refined Lord–Shulman (RLS) hypothesis, which includes one thermal relaxation time. This analytical approach enables detailed investigation of how rotation, porosity, and temperature-dependent characteristics affect displacement, temperature distribution, microrotation, and stress fields. The results reveal that including temperature-dependent coefficients significantly alters waves behavior and stress distributions. The refined Lord–Shulman framework effectively captures finite-speed thermal wave propagation and relaxation phenomena, making the model applicable to advanced problems in geophysics, biomechanics, and aerospace engineering.