Sentence examples for simulation of tissue from inspiring English sources

The model described herein utilises the tissue concentration profiles predicted by the Simcyp Simulator full PBPK model (17), which allows simulation of tissue concentration data for all organs incorporated within the model.

In this paper a fully three-dimensional approach is used for computer simulation of tissue differentiation and bone regeneration in a regular scaffold as a function of porosity, Young's modulus, and dissolution rate and this is done under both low and high loading conditions.

This paper aims to provide useful and practical information on the design of composite prostheses for healing bone fractures and describes the material properties of living tissues such as cartilage, structural materials and loading conditions according to various cases, and modeling techniques for the simulation of tissue differentiation during bone healing.

Computational simulations of tissue differentiation have been able to capture the main aspects of tissue formation/regeneration observed in animal experiments—except for the considerable degree of variability reported.

While no tissue oxygenation data were collected in our model, tissue oxygenation measurements made in the septic heart [ 33] and simulations of tissue PO2 in septic skeletal muscle [ 34] have suggested the septic tissue is hypoxic, but not anoxic.

For simulations of tissue mechanics, we have used a nonlinear Finite Element Method which provides an approximate solution of continuum elasticity problems on domains with complex geometry (Zienkiewicz et al., 2005).

Here we present an adaptable software tool (named CellSys) that implements a class of lattice-free agent-based models permitting realistic simulations of tissue growth and organization processes of common experimental settings in vitro, as the growth dynamics in monolayer cultures and multi-cellular spheroids (Drasdo and Hoehme, 2005).

The model is tested by a three-dimensional simulation of bone tissue adaptation for the human femur.

An alternative approach, based on cell automata models, allows efficient simulation of nervous tissue by modelling neurons as finite state automata.

In this study, we propose a framework for the optimal design of the porous scaffold microstructure by three-dimensional computational simulation of bone tissue regeneration that consists of scaffold degradation and new bone formation.

The 3-D bioreactor provides a better simulation of living tissue and real liver function.