Dynamical Inverse Plane Response of Circular Inclusions in a Strip Domain under Line Source Excitation

The dynamic anti-plane response of a circular inclusion embedded in a strip domain under line source excitation is investigated using the complex variable method and Green’s function approach. First, the total wave field with undetermined coefficients is constructed by employing the method of infinite mirror images. Then, a system of equations is formulated based on the continuity conditions at the boundary of the circular inclusion, allowing for the determination of the unknown coefficients and the derivation of the complete wave field within the strip domain. Finally, numerical examples are presented to analyze the dynamic stress concentration around the circular inclusion. The results demonstrate that low-frequency excitation significantly amplifies the dynamic stress concentration in the vicinity of the inclusion. Moreover, this amplification effect becomes more pronounced with increasing contrast in wave numbers between the inclusion and the matrix.

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Publication Details

Journal
Mechanics of Solids
Published
2025-11-12
DOI
https://doi.org/10.1134/s0025654425601995
Primary Topic
Geotechnical Engineering and Underground Structures
Type
article
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article

Dynamical Inverse Plane Response of Circular Inclusions in a Strip Domain under Line Source Excitation

Huimin Wang, Jie Yang, Yuan Shengxi
Mechanics of Solids
Geotechnical Engineering and Underground Structures
article

Dynamical Inverse Plane Response of Circular Inclusions in a Strip Domain under Line Source Excitation

Huimin Wang, Jie Yang, Yuan Shengxi
article en

Abstract

The dynamic anti-plane response of a circular inclusion embedded in a strip domain under line source excitation is investigated using the complex variable method and Green’s function approach. First, the total wave field with undetermined coefficients is constructed by employing the method of infinite mirror images. Then, a system of equations is formulated based on the continuity conditions at the boundary of the circular inclusion, allowing for the determination of the unknown coefficients and the derivation of the complete wave field within the strip domain. Finally, numerical examples are presented to analyze the dynamic stress concentration around the circular inclusion. The results demonstrate that low-frequency excitation significantly amplifies the dynamic stress concentration in the vicinity of the inclusion. Moreover, this amplification effect becomes more pronounced with increasing contrast in wave numbers between the inclusion and the matrix.

Mechanics of SolidsVol. 60(6)
Shanghai Dianji University (CN)
Openalex Percentile: Top 64%
Geotechnical Engineering and Underground Structures
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