Mesh adaptation is the process of modifying a mesh at hand into one that will reduce the error of the simulation by adapting the mesh based on the characteristics of the flow. It is in the core of many Computational Fluid Dynamics (CFD) simulations and as such it is important to be efficient and robust. This project focuses on how to improve current tools both in terms of functionality and performance in order to enable efficient parallel mesh adaptation.

  1. C. Tsolakis, N. Chrisochoides, M. A. Park, A. Loseille, and T. Michal, “Parallel Anisotropic Unstructured Grid Adaptation,” AIAA Journal, vol. 59, no. 11, pp. 4764–4776, 2021.

  2. B. Y. Zhou, N. R. Gauger, C. Tsolakis, J. K. Pardue, A. Chernikov, F. Drakopoulos, N. Chrisochoides, and B. Diskin, “Hybrid RANS/LES Simulation of Vortex Breakdown Over a Delta Wing,” in AIAA Aviation Forum, American Institute of Aeronautics and Astronautics, 2019.

  3. C. Tsolakis and N. Chrisochoides, “Anisotropic Mesh Adaptation Pipeline For The 3D Laminar Flow Over a Delta Wing,” in Modeling, Simulation, and Visualization Student Capstone Conference, Suffolk, VA, 2019.

  4. C. Tsolakis, N. Chrisochoides, M. A. Park, A. Loseille, and T. Michal, “Parallel Anisotropic Unstructured Grid Adaptation,” in AIAA SciTech Forum, 2019.

  5. C. Tsolakis, F. Drakopoulos, and N. Chrisochoides, “Sequential Metric-Based Adaptive Mesh Generation,” in Modeling, Simulation, and Visualization Student Capstone Conference, Suffolk, VA, 2018.