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Scientific Computing · CWI Amsterdam

Towards truly predictive computational science

I develop methods for making predictions under uncertainty in physical systems, combining physical modelling with data-driven techniques — above all for problems in fluid dynamics. I lead the Scientific Computing group at CWI in Amsterdam, and am part-time associate professor at Eindhoven University of Technology.

Benjamin Sanderse

The future of computational science lies in the combination of physical modelling and data-driven techniques. In my group we develop new methods and algorithms that enable the transition to truly predictive models, working at the intersection of uncertainty quantification, partial differential equations and discretization methods, computational fluid dynamics, machine learning, reduced-order modelling, and Bayesian inference. The models we develop are applied to sloshing of liquefied natural gas in tanker ships, aeroelastic predictions for wind turbines, and transport of multiphase flow in pipelines.

More about me · Research · Publications


ERC Consolidator Grant

I have been awarded an ERC Consolidator Grant for the project SYMBIOSIS, on “Entropy-driven model reduction for fluid flows” — turbulent flows with applications in the energy sector. Read more about SYMBIOSIS.

SYMBIOSIS — entropy-driven model reduction for fluid flows

What I work on

  • Stochastic differential equations
    Combining physics, machine learning, and data assimilation
  • Reduced order models
    Structure-preserving methods with enhanced stability and accuracy.
  • Structure-preserving neural networks and machine learning
  • Closure modelling for multiscale problems
    Such as turbulence, using “discretize first, filter next”.
  • Uncertainty quantification
    Surrogate modelling for parametric PDEs, efficient solvers for Bayesian inverse problems, statistical learning for closure models, novel quadrature rules.
  • Computational fluid dynamics
    Time integration for differential-algebraic equations, and structure-preserving discretization of the incompressible single- and multi-phase Navier-Stokes equations.

More detail on the Research page.

Discretize first, filter next: consistent versus inconsistent training data for large-eddy simulation
Discretize first, filter next — deriving closure models from training data that is consistent with the discretisation, rather than with the continuous equations.

Open positions

There are several open positions in my group, as PhD candidate or postdoc — see vacancy 1305098 and vacancy 1304811 on the CWI website. These vacancies have closed. Further positions funded by SYMBIOSIS will be advertised on the CWI vacancies page; for frequently asked questions see ERC Consolidator positions: FAQ.


Research team

Robin Klein

Robin Klein

PhD candidate

Henrik Rosenberger

Henrik Rosenberger

POSTDOC

Syver Agdestein

Syver Agdestein

Postdoc

Pardeep Kumar

Pardeep Kumar

PhD candidate


Recent publications

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