Analysis of a Transversely Isotropic Annular Circular Cylinder Immersed in a Magnetic Field Using the Moore–Gibson–Thompson Thermoelastic Model and Generalized Ohm’s Law

The main objective of this work is to study the homogeneous thermoelastic interactions in an isotropic hollow thin cylinder immersed electric–magnetic field using linear Moore–Gibson–Thompson theory thermoelasticity, taking into account generalized Ohm’s law. MGT system equations for new model created by incorporating a relaxation period Green–Naghdi type III framework. In addition, Maxwell that investigate effect electromagnetic are presented. While outer surface thermally insulated and free traction, interior both traction subject thermal shock. To convert problem space domain only, Laplace transform methodology used solve governing generated transformed domain. theoretical results computed dynamically graphically displayed transversely material Honig Hirdes approach. A comparison findings based on different (classical generalized) theories provided, followed discussion impact applied field.