A MeshCNN-style convolutional network adapted to 2D CFD airfoil meshes classifies airfoil thickness ranges with roughly 67% stable and 83% peak accuracy, but the small self-made dataset and missing artifacts limit the result.
MeshCNN Fundamentals: Geometric Learning through a Reconstructable Representation
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abstract
Mesh-based learning is one of the popular approaches nowadays to learn shapes. The most established backbone in this field is MeshCNN. In this paper, we propose infusing MeshCNN with geometric reasoning to achieve higher quality learning. Through careful analysis of the way geometry is represented through-out the network, we submit that this representation should be rigid motion invariant, and should allow reconstructing the original geometry. Accordingly, we introduce the first and second fundamental forms as an edge-centric, rotation and translation invariant, reconstructable representation. In addition, we update the originally proposed pooling scheme to be more geometrically driven. We validate our analysis through experimentation, and present consistent improvement upon the MeshCNN baseline, as well as other more elaborate state-of-the-art architectures. Furthermore, we demonstrate this fundamental forms-based representation opens the door to accessible generative machine learning over meshes.
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AirCANS: CFD 2D Mesh Optimisation-based Airfoil Classification and Assessment using Neural Networks
A MeshCNN-style convolutional network adapted to 2D CFD airfoil meshes classifies airfoil thickness ranges with roughly 67% stable and 83% peak accuracy, but the small self-made dataset and missing artifacts limit the result.