International Journal for Numerical Methods in Engineering · 1981 · 143 citations · 32 references
Natural SciencesMaterials ScienceMechanical EngineeringComputational MechanicsMechanical Behavior Of MaterialsRheologyElastic DeformationElasticity TheoryStrain AnalysisStress ConcentrationViscoelastic BehaviorViscoelastic PropertiesBoundary Integral Equation FormulationsElasticity ProblemsInverse Laplace TransformLaplace TransformNumerical Inversion Of Laplace TransformsStress Field InversionStress Wave PropagationTransient Stress Waves
Abstract The dynamic stress field and its concentrations around holes of arbitrary shape in infinitely extended bodies under plane stress or plane strain conditions are numerically determined. The material may be linear elastic or viscoelastic, while the dynamic load consists of plane compressional waves of harmonic or general transient nature. The method consists of applying the Laplace transform with respect to time to the governing equations of motion and formulating and solving the problem numerically in the transfomed domain by the boundary integral equation method. The stress field can then be obtaind by a numerical inversion of the trasformed solution. The correspondence principle is invoked for the case of viscoelastic material behavious. The method is simplified for the case of harmonic waves where no numerical inversion is involved.
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Handbook of Mathematical Functions
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