The Problem on an Edge Dislocation Running at SuperseismicVelocity

As a model of shear rupture in the Earth’s crust at the depths of seismic activity, which grows with a velocity exceeding the velocity of longitudinal waves, we consider a Volterra edge dislocation moving in an infinite isotropic elastic medium under the action of preliminary tangential stresses. In the plane strain approximation, the equations of stationary motion of the medium around the dislocation are reduced to a hyperbolic system of equations for velocities and stresses, which is integrated by the method of characteristics. Using the invariant $$ J $$ –integral, an estimate of the energy released during the motion of dislocation is obtained, depending on the velocity, the value of tangential stress at infinity, the length of the fan adjacent to the vertex of dislocation, and on the nature of the distribution of the Burgers vector in the fan.

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Publication Details

Journal
Journal of Applied and Industrial Mathematics
Published
2025-11-02
DOI
https://doi.org/10.1134/s1990478925010119
Primary Topic
Geotechnical and Geomechanical Engineering
Type
article
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article

The Problem on an Edge Dislocation Running at SuperseismicVelocity

В. М. Садовский, O. V. Sadovskaya
Journal of Applied and Industrial Mathematics
Geotechnical and Geomechanical Engineering
article

The Problem on an Edge Dislocation Running at SuperseismicVelocity

В. М. Садовский, O. V. Sadovskaya
article en

Abstract

As a model of shear rupture in the Earth’s crust at the depths of seismic activity, which grows with a velocity exceeding the velocity of longitudinal waves, we consider a Volterra edge dislocation moving in an infinite isotropic elastic medium under the action of preliminary tangential stresses. In the plane strain approximation, the equations of stationary motion of the medium around the dislocation are reduced to a hyperbolic system of equations for velocities and stresses, which is integrated by the method of characteristics. Using the invariant $$ J $$ –integral, an estimate of the energy released during the motion of dislocation is obtained, depending on the velocity, the value of tangential stress at infinity, the length of the fan adjacent to the vertex of dislocation, and on the nature of the distribution of the Burgers vector in the fan.

Journal of Applied and Industrial MathematicsVol. 19(1)
Institute of Computational Modeling (RU)
Openalex Percentile: Top 63%
Geotechnical and Geomechanical Engineering
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