Fundamentals Microstructures
Process Applications
edited by Dierk Raabe
Continuum Scale Simulation of Engineering Materials has everything you need to know about materials research -- from the fundamentals to recent applications.
Continuum Scale Simulation of Engineering Materialsprovides you with information needed to judge which simulation method to use for which kind of modeling/simulation problem.
Contents:
- Computer simulation of diffusion controlled phase transformations
- Introduction to the phase-field method of microstructure evolution
- Cellular, lattice gas,and Boltzmann automata
- The Monte Carlo method
- Crystal plasticity
- Yield surface plasticity and anisotropy
- Artificial neural networks
- Multiscale discrete dislocation dynamics plasticity
- Physically based models for industrial materials : what for?
- Modeling of dendritic grain formation during solidification at the level of macro- and microstructures
- Phase-field method applied to strain-dominated microstructure evolution during solid-state phase transformations
- Irregular cellular automata modeling of grain growth
- Topological relationships in 2D trivalent mosaics and their application to normal grain growth
- Motion of multiple interfaces : grain growth and coarsening
- Deformation and recrystallization of particle-containing aluminum alloys
- Mesoscale simulation of grain growth
- Dislocation dynamics simulations of particle strengthening
- Discrete dislocation dynamics simulation of thin film plasticity
- Discrete dislocation dynamics simulation of crack-tip plasticity
- Coarse graining of dislocation structure and dynamics
- Statistical dislocation modeling
- Taylor-type homogenization method for texture and anisotropy
- Self consistent homogenization methods for texture and anisotropy
- Phase-field extension of crystal plasticity with application to hardening modeling
- Generalized continuum modeling of single and polycrystal plasticity
- Micro-mechanical finite element models for crystal plasticity
- A crystal plasticity framework for deformation twinning
- The texture component crystal plasticity finite element method
- Microstructural modeling of multifunctional material properties : the OOF project
- Micromechanical simulation of composites
- Creep simulation
- Computational fracture mechanics
- Rheology of concentrated suspensions : a lattice model
- Solidification processes : from dendrites to design
- Simulation in powder technology
- Integration of physically based materials
- Integrated through-process modelling, by the example of Al-rolling
- Property control in production of aluminum sheet by use of simulation
- Forging
- Numerical simulation of solidification structures during fusion welding
- Forming analysis and design for hydroforming
- Sheet springback
- The ESI-Wilkins-Kamoulakos (EWK) rupture model
- Damage percolation modeling in aluminum alloy sheet
- Structure damage simulation
- Microstructure modeling using artificial neural networks
Index