I am a postdoctoral researcher at the Department of Mathematics at EPFL, Switzerland. My research focuses finite element methods for partial differential equations in electromagnetism, elasticity, and relativity.
After my PhD at the University of Oslo, I was a visiting assistant professor at UCSD. I have been visitor at the University of Minnesota, Cambridge University, and Brown University.
In my free time, I paint with acrylics and learn Mandarin.
01/2014 - 06/2017 |
PhD in Mathematics, University of Oslo. Thesis: On the A Priori and A Posteriori Error Analysis in Finite Element Exterior Calculus. [Download] [Thesis Abstract] |
10/2006 - 12/2013 |
Diplom (master's degree) in Computer Science, University of Bonn. Diplom thesis: Smoothed Analysis of Linear Programming. [Download] Final grade: "sehr gut". |
10/2006 - 08/2012 |
Diplom (master's degree) in Mathematics, University of Bonn. Diplom thesis: Discrete distributional differential forms and their applications. Final grade: "sehr gut". |
07/2018 - 08/2018 | Micro-MBA, Rady School of Management, UCSD. |
Since 09/2021 | Bernoulli Instructor, EPFL, Switzerland. |
01/2021 - 06/2021 | Postdoctoral Scholar, UC San Diego, USA. |
09/2020 - 12/2020 |
Postdoctoral Scholar, ICERM, Brown University, Providence, USA
Program Advances in Computational Relativity |
07/2019 - 12/2019 |
Visitor at Isaac Newton Institute, University of Cambridge, UK.
Program Geometry, compatibility and structure preservation in computational differential equations |
07/2017 - 06/2020 | S.E.W Visiting Assistant Professor, UC San Diego, USA. |
09/2015 - 05/2016 | Visiting Research Scholar, University of Minnesota. |
06/2010 - 09/2010 |
Visiting Scholar, Jülich Supercomputing Centre. Domain Distribution for parallel Modeling of Root Water Uptake. Proceedings 2010, JSC Guest Student Programme on Scientific Computing, 2010. [Link] |
Discrete harmonic vector fields on a square subject to mixed boundary conditions:
we impose tangential boundary conditions along the middle parts of the four boundary faces
and normal boundary conditions near the corners.
Even though the domain is simply connected, the space of harmonic vector fields is non-trivial. Its dimension is the first relative Betti number of the domain, which equals 3 in this example.
The low elliptic regularity of the vector Laplace equation in the presence of mixed boundary conditions is apparent.
Discrete harmonic vector fields on an anulus, computed with a lowest-order Nedéléc method. Once with tangential boundary condition (left), then with normal boundary conditions (right). The space of harmonic vector fields reflects the non-trivial topology of the domain.