Multivariate interpolation for fluid-structure-interaction problems using radial basis functions
By Armin Beckert, Holger Wendland. 2001
352 citations recorded by the source corpus.
Subfields: Aerospace Engineering, Computational Mechanics, Environmental Engineering
View Paper: https://www.semanticscholar.org/paper/3b3479fe94aafa2fc26b5522ed2fcdeca5f2ba0a
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Aerospace Engineering
- Christian B. Allen
- Thomas C. S. Rendall
- A. Morris
- Robert Schaback
- Hester Bijl
- Aukje de Boer
- Alexander van Zuijlen
- Holger Wendland
In Computational Mechanics
- Christian B. Allen
- Thomas C. S. Rendall
- A. Morris
- Robert Schaback
- Hester Bijl
- Aukje de Boer
- Alexander van Zuijlen
- Holger Wendland
In Environmental Engineering
- Christian B. Allen
- Thomas C. S. Rendall
- A. Morris
- Robert Schaback
- Hester Bijl
- Aukje de Boer
- Alexander van Zuijlen
- Holger Wendland
Citations in the corpus
- Unified fluid–structure interpolation and mesh motion using radial basis functions (2008, methodology): “For p(x), Beckert and Wendland [48] used up to linear polynomials so that translation and rotation are recovered, i.e. if the wing simply translates or rotates then the interpolation at the fluid–structure interface does not change.”
- Review of coupling methods for non-matching meshes (2007, methodology): “It would be very useful to vary the radius from center to center, but according to [8] theory only guarantees solvability for a ‘fixed’ radius.”
- CFD‐based optimization of aerofoils using radial basis functions for domain element parameterization and mesh deformation (2008, methodology): “Although RBFs have been used for mesh deformation techniques in shape optimization [49] and structural–aerodynamic coupling [38, 50], their use in the current research is not to strictly or uniquely parameterize an aerodynamic shape, but to allow that initial shape and its corresponding aerodynamic ”
- Kernel techniques: From machine learning to meshless methods (2006, methodology): “This has been done successfully, for example, in a series of papers (Farhat and Lesoinne 1998, Beckert 2000, Beckert and Wendland 2001, Ahrem, Beckert and Wendland 2005) and is already on its way to become an industry standard.”