Atomistic-based simulations such as molecular mechanics (MM), molecular dynamics (MD), and Monte Carlo-based methods (MC) have come into wide use for materials design.
Atomistic-based simulations such as molecular mechanics, molecular dynamics, and Monte Carlo-based methods have come into wide use for material design.
Although computer-based simulations, such as structural finite element analysis, have proven their usefulness to support procedural planning of coronary stenting, the link between the clinical practice and these engineering techniques is still limited to research test-cases.
The program emphasizes the use and development of modern numerical tools for model-based simulations such as finite element methods, uncertainty quantification procedures, and data analysis techniques, among others.
For the rarefied gas flow conditions typical in PVD processes, particle based simulation methods such as the Direct Simulation Monte Carlo (DSMC) method for transport of neutral particles and Particle-in-Cell Monte Carlo (PIC-MC) method for plasma discharges can be used.
Particularly, methods solely based upon analysis of static structures such as NMA and methods based upon MD simulations such as TAMD were highlighted.
The APECS software system combines steady-state process simulation with multiphysics-based equipment simulations, such as those based on computational fluid dynamics (CFD).
Analytical approaches are also invaluable in calibrating and providing independent checks on more detailed individual based micro-simulations, such as [13], [17], [20].
Predicting such dose distributions can be accurately done via complex and slow Monte Carlo based simulation (using tools such as Geant), but such simulators are too slow for use in interactive situations where a doctor is trying to determine the best beams to use for a particular patient.
The proposed solution is based on high-order schemes, Large Eddy Simulations, such as the turbulence model, and the use of Immersed Boundary Conditions.
