Understanding the structure and formation mechanisms of interfaces between different telluride phases is important to the development of thermoelectric nanocomposites.
Thus, an accurate atomic insight into the interface bonding and mechanism of interface gap states formation becomes essential.
The mechanism of interface sliding involves glide of interfacial dislocation loops that nucleate in the weakest regions of interfaces.
This review highlights current knowledge of the structure function relationship at the interface, the mechanism of interface regeneration, and the strategic biomimicry implemented in stratified scaffold design for interface tissue engineering and multi-tissue regeneration.
Based on the fatigue damage mechanism of interface frictional slip between fiber and matrix, the micromechanics fatigue hysteresis loops models corresponding to four different interface slip cases have been developed, in which the unloading interface counter-slip length and reloading interface new-slip length were determined by fracture mechanics approach.
We observe the onset of decomposition of the multilayer structure at 700 °C via the mechanism of interface-directed spinodal decomposition of TiAlN layers, where Al atoms preferentially move toward the nearest interface and segregate there.
In this investigation, we have used atomistic simulations to explore the shear resistance and sliding mechanism of interfaces of Cu Nb layered composites, as a function of applied in-plane shear direction and different interface atomic structures.
This paper investigates the mechanics of deformation and failure mechanisms of suture interface designs through analytical models and experiments on 3D printed polymer physical prototypes.
They modelled micro-to-macro mechanisms of the interface and studied the numerical implementation of this model in combination with a discrete crack model for concrete.
This paper addresses the issue of crack propagation mechanisms of various interfaces using molecular dynamics (MD) simulations.
