This paper is devoted to the study of one such microstructural change, attributed to deformation induced twinning, from a macroscopic point of view, within the framework of a general continuum theory originally developed for polymers by Rajagopal and Wineman [1] and modified appropriately to model crystalline materials by Rajagopal and Srinivasa [2,3].
Despite numerous efforts devoted to characterizing the mechanical behavior of such materials, there does not exist a general continuum theory describing the plastic deformation of these materials.
The basic ideas of these new types of forces are explained using a general continuum model for the structure.
The analytical model is based on general continuum mechanics theory, which considers that a layer stack of two individual GSs is bound together by van der Waals (vdW) forces, and the interaction of DLGSs embedded to elastic foundations is modeled based on the Winkler model.
A general continuum formulation was adopted to represent the physical model of the structure and a lumped parameter model was adopted to represent the soil and the interaction mechanisms.
In the numerical model, the dynamics of different fluids is formulated based on a unified framework for general continuum.
A general continuum theory is developed for ion intercalation dynamics in a single crystal of rechargeable-battery composite electrode material.
A number of recent papers on general continuum-state system reliability are briefly reviewed.
Initiation and propagation of supercritical CO2 injection-induced fractures are highly dominated by the tri-axial stresses, following the general trend of continuum mechanics at high stress levels with large stress difference.
Adding to the complexity of this hierarchical model of PS, TS, and TS-M, each class of instrumentation can be operationalized using measures that differ on a context-specific to context-general continuum.
