In this work, we apply the multiscale material model described in Tonge and Ramesh (2015) to ballistic impacts on the advanced ceramic boron carbide and suggest possible directions for improving the performance of boron carbide under impact conditions.
To determine the model parameters of the non-linear material model described in the previous section, oscillatory experiments can be used.
The inverse homogenization approach for optimizing the periodic structure of lattice materials requires a parameterized, homogenized material model describing the response of an arbitrary structure.
There, a material model describing the flow stress distribution caused by a dislocation pile-up at the grain-boundary is applied.
Material and construction of the models described include breathing, chest, cricothyroidotomy, circulation, wound repair, fracture/dislocation, splinting, fasciotomy/amputation, and an animal model.
Quantile plots of the type I error indicate that all three regression models described in Materials and Methods control the type I error at or below the desired threshold (Supporting Information, Figure S1).
To explore a possible genetic association of coat colour with hip score, coat colour was fitted as an additional fixed effect in the models described in the Materials and Methods.
To determine changes that left MTL damage can produce in the functional organization of interconnected brain regions during WM encoding, we evaluated the model evidence for 12 (DCM) models described in the Materials and Methods section (see Fig. 2 b ).
However, conventional material models cannot describe the material behaviors in micro/mesoscale due to size/scale effects.
Modern concepts in the safe and economical design of components and structures need modern material models, which describe the material behavior more correctly.
