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Blog

Academic Blog: Optimization of a Leading Edge for Flat Plate Boundary Layer Experiments

Academic Blog: Optimization of a Leading Edge for Flat Plate Boundary Layer Experiments

Predicting the transitional boundary layer is still an almost impossible task for arbitrary flow conditions. The consideration of the impact of boundary conditions such as pressure gradient, free-stream turbulence and surface roughness demand improved transition models, which are the interest of a research group at the Karlsruhe University for Applied Sciences. CAESES was introduced as the process integration and design optimization (PIDO) platform to optimize the leading edge contour.

CFD Optimization Software: 5 Tips for Selecting the Right One

CFD Optimization Software: 5 Tips for Selecting the Right One

When we talk about CFD optimization software, we actually think of a an entirely automated engineering process that covers geometry generation, meshing, simulation and design post-processing. All of these single steps are automated to create a closed optimization loop where, finally, the optimal design candidate(s) emerge from the process, showing optimal results in terms of the product’s flow behavior (e.g. minimum pressure loss, lowest drag, reduced wave resistance, flow homogeneity, robustness for different operating conditions, etc.).