Dr. Richard Schussnig

Post-doctoral Researcher
High Performance Computing
Phone: +49 821-598-4853
Email:
Room: 1312 (I)
Address: Universitätsstraße 12, 86159 Augsburg
Postal address: Universitätsstraße 12, 86159 Augsburg

SHORT RÉSUMÉ

 

2023- Post-doctoral Researcher, Chair of High-Performance Scientific Computing, Institute of Mathematics, University of Augsburg
2017-2022        

Doctor of Technical Sciences in Civil Engineering Sciences, Institute of Structural Analysis, Graz University of Technology, Thesis: "Generalised Newtonian Fluids in Cardiovascular Fluid-Structure Interaction"

2020-2022 University Assistant, Institute of Structural Analysis, Graz University of Technology
2018-2020

Research Project Assistant, Institute of Structural Analysis, Graz University of Technology, Project: "Mechanics, Modeling and Simulation fo Aortic Dissection"

2017 Research Project Assistant, Institute of Structural Analysis, Graz University of Technology, Project: "Higher-order accurate space-time XFEM in applications with moving interfaces"
2015-2017 Student Assistant, Institute of Structural Analysis, Graz University of Technology
2012-2017 Master of Science in Civil Engineering Sciences and Structural Engineering, Graz University of Technology, Thesis: "Isoparametric Mixed Finite Elements in Kirchhoff-Love Plate Theory"

 

RESEARCH INTERESTS

  • Computational Fluid Dynamics, Hemodynamics
  • Fluid-Structure Interaction
  • (Higher order) Continuous and Discontinuous Galerkin Methods
  • High-Performance Computing
  • Numerical Methods for nonlinear Initial Boundary Value Problems
  • Computing in Mathematics, Natural Science, Engineering and Medicine

TEACHING

Summer 2023

  • We are currently searching for Bachelor and Master students interested in modeling the cardiovascular system by means of computational fluid dynamics and fluid-structure interaction. For further information, please see the abstract on "Geometric multiscale modeling of the cardiovascular system: Lower-dimensional vessel networks and their coupling to viscous incompressible flow in large arteries".

Search