This chapter describes space adaptive approaches developed by six TILDA partners for the application in scale-resolving simulations. They are designed to provide sufficient spatial resolution in regions where required and to allow a lower resolution elsewhere for efficiency reasons. Adaptation techniques considered include mesh (h-refinement), order refinement of the spatial discretization (p-refinement) or a combination of both (hp-refinement). Furthermore, near-wall local mesh refinement, refinement using feature-based indicators and indicators obtained from the Variational Multiscale Method are considered.
Space Adaptive Methods/Meshing / Hartmann, R.; Balan, A.; Bassi, F.; Boussuge, J. -F.; de Brauer, A.; Cagnone, J. -S.; Colombo, A.; Couaillier, V.; Coulaud, O.; Crivellini, A.; Franciolini, M.; Ghidoni, A.; Hillewaert, K.; de la Llave Plata, M.; Manzinali, G.; Naddei, F.; Noventa, G.; Puigt, G.; Vermeire, B. C.; Vincent, P. E.. - 148:(2021), pp. 103-190. [10.1007/978-3-030-62048-6_4]
Space Adaptive Methods/Meshing
Crivellini A.;
2021-01-01
Abstract
This chapter describes space adaptive approaches developed by six TILDA partners for the application in scale-resolving simulations. They are designed to provide sufficient spatial resolution in regions where required and to allow a lower resolution elsewhere for efficiency reasons. Adaptation techniques considered include mesh (h-refinement), order refinement of the spatial discretization (p-refinement) or a combination of both (hp-refinement). Furthermore, near-wall local mesh refinement, refinement using feature-based indicators and indicators obtained from the Variational Multiscale Method are considered.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.