An effective method based on micro scale modelling for the determination of overall pore throat size distribution (PSD) by injection of colloidal particle suspensions into engineered porous media with monitored inlet and breakthrough particle concentrations is developed.
As the strong transient thermal stress impact induced by IPIB was mainly attributed to the exfoliation, a micro scale model combined with thermal conduction and linear elastic fracture mechanics was built to analyze the thermal stress distribution along the energy deposition process.
Here we suggest a CFD model which has good potential for development of the meso-micro scale models for predicting and designing multi-scale urban airflows.
The challenge for the bioengineer is to develop multi-scale modeling tools that predict the three-dimensional macro-scale mechanical performance of cartilage from micro-scale models.
The AP/HTPB flame structure predicted with the micro-scale models is separated into four flames.
It can be seen that in these examples, different positive externality "drivers" lead to equivalent (threshold) micro-scale models.
Physical and kinetic parameters are determined with the micro-scale models.
The micro-scale models including the matrix-voids RVE and the fiber-matrix RVE were used to calculate the thermal properties of resin matrix and yarns, respectively.
Micro-scale models of TRISO particles are necessary in order to obtain accurate predictions during fast transients or when parameters internal to the TRISO are needed.
The results show a successful example of a coupling between engineering scale experiments and micro-scale models and contribute to the understanding of fundamental changes in the properties of starch during industrial scale heating shearing processes.
While macro-scale and micro-scale models predicted similar average oxygen levels at different depths within the scaffold, μCT models revealed small local oxygen variations within the scaffold micro-architecture.
