Stud.IP Uni Oldenburg
University of Oldenburg
23.03.2023 19:33:52

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Title Various Topics in GPU-resident High-fidelity Wind Farm Simulations

Modelling the interaction of wind turbines with the atmospheric boundary layer and the wakes of upstream turbines is of crucial importance for almost all engineering aspects of wind power development. Computational fluid dynamics (CFD), in particular Large-eddy simulation (LES), can provide valuable insights of the underlying flow phenomena. However, LES using classical numerical approaches typically comes at an immense computational cost that limits the use of the method significantly.

Over the past decade, modern graphics processing units (GPUs) and the development of suitable numerical approaches like the Lattice Boltzmann Method (LBM) have enabled significant performance gains for LES, and even facilitated the use of LES in the industrial practice. In the AG TWiSt, we develop and investigate a specific LBM-LES framework for various applications in wind energy. In this field, we can offer various topics for Bachelor or Master theses. Depending your interest, the thesis can revolve around the development and implementation of new model capabilities, computational optimizations of the existing solver, or the use of the framework in its current state (involving less coding) for validation studies or investigations of various wind physics.

Home institution Institute of Physics
Type of work practical / application-focused
Type of thesis Bachelor's
Author Dr. Henrik Asmuth
Status available
Problem statement

A selection of currently available thesis topics is given in the following:

·       Development of canopy models for the simulation for wind farm flows above forests

·       Coupling of a structural solver and actuator line model for aeroelastic wind turbine simulations

·       Comparison of LBM-LES wind farm simulations against wind tunnel experiments

·       Investigation of wake mitigation strategies of wind farm power and load optimization

·       Investigation of the suitability of half-precision floating point format for turbulent flow simulations

We are also always open to other suggestions. Please to hesitate to contact us for further discussions.


You should be at the end of your bachelor's degree in physics, engineering, computational science (or comparable), highly motivated and have a great interest in numerical simulation and wind energy. Prior coding experience in C++/CUDA and Python are a merit but not mandatory.

Created 08/03/23

Study data

Departments No departments assigned
Degree programmes
  • Bachelor's Programme Engineering Physics
  • Bachelor's Programme Physics
  • Bachelor's Programme Computing Science
  • Bachelor's Programme Mathematics
Assigned courses No courses assigned
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