In this work, a three-dimensional fully coupled hydro-mechanical model using material point method (MPM) is developed.
This FE model used material parameters from only a few Vasa oak samples as input.
The authors also examined the FE model using material properties derived from a different species and skeletal part (i.e. human limb bone), and in that case found a weaker correspondence between FE and in vivo data.
Finally, the results of simplified models using material data obtained from numerical homogenization are compared to the results of models with heterogeneous build-up.
Note, however, that all of the models used material properties derived directly from macaque crania.
The damage mechanics based model uses empirical material parameters to represent orthotropic damage evolution.
The model uses a material flow analysis technique to represent changes on the behavior of the watershed due to the polluted discharges.
The current model uses homogeneous material response and the scaling laws to anticipate the correct timing beyond the maximum stress at which stress collapse should occur.
The extractor modeled mathematically using material balance in both fluid and solid phases.
