We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapted mesh matching the intrinsic directionalities of an assigned function. In more detail, the original embedding map between the physical (lower dimensional) and the embedded (higher dimensional) setting is modified to include information associated with the function and with its gradient. Then, we set an adaptive procedure, driven by the embedded metric but performed in the lower dimensional setting, which results into an anisotropic adapted mesh of the physical domain. The effectiveness of the proposed procedure is extensively investigated on several two-dimensional test cases, involving both analytical functions and finite element approxima...
AbstractIn this paper, we study the extension of anisotropic metric-based mesh adaptation to the cas...
This paper presents a numerical study of a recent technique that consists in modeling embedded geome...
We present a method for anisotropic mesh refinement to high-order numerical solutions. We accomplish...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
AbstractIn this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite e...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In [2,1] the authors provide a new re-meshing technique based on a higher dimensional embedding to g...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
AbstractIn this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite e...
International audienceMesh adaptation for immersed solid is one of the most challenging topics in co...
Abstract. A new anisotropic mesh adaptation strategy for finite element solution of elliptic differe...
AbstractIn this paper, we study the extension of anisotropic metric-based mesh adaptation to the cas...
This paper presents a numerical study of a recent technique that consists in modeling embedded geome...
We present a method for anisotropic mesh refinement to high-order numerical solutions. We accomplish...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
We generalize the higher embedding approach proposed in Lévy and Bonneel (2013) to generate an adapt...
AbstractIn this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite e...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In [2,1] the authors provide a new re-meshing technique based on a higher dimensional embedding to g...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
In this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite element a...
AbstractIn this paper we provide a novel anisotropic mesh adaptation technique for adaptive finite e...
International audienceMesh adaptation for immersed solid is one of the most challenging topics in co...
Abstract. A new anisotropic mesh adaptation strategy for finite element solution of elliptic differe...
AbstractIn this paper, we study the extension of anisotropic metric-based mesh adaptation to the cas...
This paper presents a numerical study of a recent technique that consists in modeling embedded geome...
We present a method for anisotropic mesh refinement to high-order numerical solutions. We accomplish...