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Planar Slip Condition For Mesh Morphing Using Radial Basis Functions
Author(s) -
Stéphane Aubert,
Franck Mastrippolito,
Quentin Rendu,
Martin Buisson,
Frédéric Ducros
Publication year - 2017
Publication title -
procedia engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.32
H-Index - 74
ISSN - 1877-7058
DOI - 10.1016/j.proeng.2017.09.819
Subject(s) - morphing , polygon mesh , radial basis function , slip (aerodynamics) , planar , computer science , robustness (evolution) , algorithm , geometry , mathematics , physics , artificial intelligence , biochemistry , chemistry , computer graphics (images) , artificial neural network , gene , thermodynamics
An original approach to morph meshes including slip planes is proposed. Extending the classical interpolation scheme based on Radial Basis Functions (RBF), it preserves the linear property, linking the deformation response to the known displacements, underlying the RBF formalism. No post-correction stage, nor extra not-moving control points, are required to enforce in plane displacements. Accuracy and robustness are evaluated for a 2D configuration where a shock-wave impinges on a cross-flow flexible panel. Analysis is based on deformation quality metrics derived from the displacement field gradient, keeping the proposed approach free from connectivity information. 3D applications are briefly illustrated by the tip of an aero engine fan subjected to conjugated parameterized variations of tip clearance and stagger angle.

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