Research Overview
Martin O. Steinhauser’s research focuses on multiscale modeling and simulation of complex physical, biological, and materials systems. His work combines theoretical physics, computational science, numerical methods, high-performance scientific computing, and selected experimental validation to study material behavior across molecular, mesoscopic, and continuum scales.
Major research areas include soft matter and biomembranes, molecular and coarse-grained simulation, shock-wave and impact phenomena, hypervelocity impact and space-debris effects, computational materials science, numerical method development, and high-performance scientific computing. His academic work also includes selected foundational questions in quantum theory, mathematical physics, and spacetime geometry.
A central feature of his research is the transfer of mathematical and computational methods across disciplinary boundaries, with applications at the interfaces of physics, chemistry, biology, materials science, engineering, and computer science.
Selected research topics include:
- Multiscale and coarse-grained modeling of macromolecules, biomembranes, and biological cells
- Shock-wave physics, impact processes, and material failure in engineered and biological systems
- Hypervelocity impact and space-debris effects on materials and satellite structures
- Soft matter, polymers, and mechanobiology under mechanical stress
- Computational materials science, numerical simulation, and high-performance scientific computing
- Numerical method development for large-scale scientific simulations
- Foundations of quantum theory, mathematical physics, and spacetime geometry
Methods
Theoretical and computational methods used in his research include
- Molecular dynamics simulations
- Coarse-grained simulations
- Monte Carlo methods
- Discrete element methods
- Finite element methods
- Smoothed particle hydrodynamics
- Mesh-free simulation methods
- Voronoi tessellations and power diagrams
- Clustering algorithms and statistical analysis
- High-performance scientific computing and parallel algorithms
Although his primary expertise lies in scientific simulation and numerical method development, selected projects have included experimental validation in collaboration with Fraunhofer EMI in Freiburg. Experimental techniques used for validation and microstructural characterization have included
- High-speed camera systems
- Scanning acoustic microscopy
- Computed tomography
- Atomic force microscopy
- Scanning electron microscopy
- Light and fluorescence microscopy
- Pulsed nanosecond laser systems
Explore Research Areas
Laser-Induced Shock Waves and Cancer Cell Destruction
Laser-Induced Shock Waves and Cancer Cell DestructionSemiflexible Polymers and Polymer Melts under Shear
Semiflexible Polymers and Polymer Melts under ShearMolecular Self-Assembly of Biological Bilayer Membranes
Molecular Self-Assembly of Biological Bilayer MembranesPolyelectrolyte Complex Formation of Macromolecules
Polyelectrolyte Complex Formation of MacromoleculesNon-Destructive Testing and Simulation of Reinforced Materials
Non-Destructive Testing and Simulation of Reinforced MaterialsContact
