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Abstract <p>The present research paper investigates the behavior dynamic of a wet bone represented as a crystal class 6 magnetic hollow cylinder. It expresses to solve the problem of the waves propagation concerning a possible function that fulfills partial differential equations whose solutions help derive the wave equation explicit solution. The mechanicaland Maxwell’s boundary circumstances match those of thestress of the lateral surface. The satisfaction of the boundary circumstancesmotivates dispersing the relationshipthatis resolved numerically. The wave frequencies are thus determined as the function of severalparameters. Theyagree well with the results of the literature<b>.</b> The frequencies are calculated using various magnetic field amplitude and porosity bone parameters for poroelastic bone. The results can contribute to the theoretical development of orthopedic research projects concerning poroelastic, long, cylindrical bones. The results obtained compared with the previous results obtained by others indicated to the strong effect for the magnetic field on the propagation waves via poroelastic bone. Theoretical results and invitro practical values recorded by a previously designed non-contacting magnetic field were compared.</p>

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Effect of Magnetic Field on Waves Propagation in Poroelastic Bones

  • 期刊论文

  • 发表日期：

    2025年10月3日

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  • M. S. Alqurashi,
  • F. S. Bayones,
  • S. M. Abo-Dahab,
  • A. M. Abd-Alla

摘要

Abstract

The present research paper investigates the behavior dynamic of a wet bone represented as a crystal class 6 magnetic hollow cylinder. It expresses to solve the problem of the waves propagation concerning a possible function that fulfills partial differential equations whose solutions help derive the wave equation explicit solution. The mechanicaland Maxwell’s boundary circumstances match those of thestress of the lateral surface. The satisfaction of the boundary circumstancesmotivates dispersing the relationshipthatis resolved numerically. The wave frequencies are thus determined as the function of severalparameters. Theyagree well with the results of the literature. The frequencies are calculated using various magnetic field amplitude and porosity bone parameters for poroelastic bone. The results can contribute to the theoretical development of orthopedic research projects concerning poroelastic, long, cylindrical bones. The results obtained compared with the previous results obtained by others indicated to the strong effect for the magnetic field on the propagation waves via poroelastic bone. Theoretical results and invitro practical values recorded by a previously designed non-contacting magnetic field were compared.