๐ฌ Photo-thermoelastic interactions in semiconductor media describe the complex coupling between optical excitation, temperature variation, and mechanical deformation. When light energy is absorbed, it generates heat and induces thermal stresses, which in turn affect the material’s structural and electronic properties. ๐ก️ Developing an analytical solution for this fully coupled behavior helps researchers understand how semiconductors respond under intense optical and thermal conditions.
⚙️ The presence of cylindrical cavities adds another layer of complexity. These geometric features influence stress concentration, heat distribution, and wave propagation within the material. ๐งฎ By solving the governing equations analytically, scientists can predict displacement fields, temperature changes, and stress patterns around cavities with high precision, without relying solely on numerical simulations.
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