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Finite-volume micromechanics-based multiscale analysis of composite structural model accounting for elastoplastic and ductile damage mechanisms

Qiang Chen, Zhelong He

2023Composites Communications12 citationsDOI

Topics & Concepts

MicromechanicsHomogenization (climate)Finite element methodRepresentative elementary volumeMaterials scienceEigenstrainStructural engineeringStiffnessMultiscale modelingMacroscopic scaleConstitutive equationMicroscale chemistrySubroutineMechanicsComposite numberComposite materialComputer scienceMathematicsResidual stressEngineeringPhysicsBiologyComputational chemistryEcologyOperating systemQuantum mechanicsMathematics educationChemistryBiodiversityComposite Material MechanicsAdvanced Mathematical Modeling in EngineeringNonlocal and gradient elasticity in micro/nano structures
Finite-volume micromechanics-based multiscale analysis of composite structural model accounting for elastoplastic and ductile damage mechanisms | Litcius