M5

- Micro Mechanics and Multiscale Materials Modeling



Research


Prof. Dr.-Ing. habil. Bernhard Eidel

  • Numerical Homogenization of micro-heterogeneous materials by two-scale finite element methods (FEHMM/FE²)
  • Atomistic-continuum coupling for seamless nano-micro scale transitions by the Quasi-Continuum (QC) Method
  • Atomistic-continuum coupling with scale separation based on homogenization
  • Deep learning in Neural Networks
  • Modeling of inelasticity: material models and time integration algorithms
  • Error estimation and mesh adaptivity
  • Biomechanics/Medical Engineering: Development of bionics-inspired, optimized hip-/knee endoprotheses
  • Structural mechanics of (ultra)light cellular structures
  • Coupled Problems: Phase field modeling of Li-ion batteries
  • Topology opotimization
  • Simulation analyses of damage-, localization and failure mechanisms and of stability problems
  Google Scholar  : https://scholar.google.com/citations?user=wuxIFqcAAAAJ&hl=de
  Research Gate  : https://www.researchgate.net/profile/Bernhard-Eidel


Dr.-Ing. Arun Prakash

  • Atomistic modeling of deformation and failure in nanocrystalline materials
  • Nanomechanics and small scale plasticity
  • Atomistic studies of fundamental deformation processes in amorphous materials
  • Experimentally informed atomistic and finite element simulations
  • Multiscale modeling and simulation of forming processes
  • Continuum and atomistic modeling of severe plastic deformation processes
  • Crystal plasticity finite element and spectral modeling frameworks
  • Unsupervised machine learning
  • Data science and informatics with applications at the nanoscale
  • Development of scale bridging models
  • Software and method development
  Google Scholar  : https://scholar.google.de/citations?user=e5B2kj0AAAAJ&hl=en&oi=ao
  Research Gate  : https://www.researchgate.net/profile/Arun-Prakash-20