In this paper, we tackle the problem of constructing conforming Virtual Element spaces on polygons with curved edges. Unlike previous VEM approaches for curvilinear elements, the present construction ensures that the local VEM spaces contain all the polynomials of a given degree, thus providing the full satisfaction of the patch test. Moreover, unlike standard isoparametric FEM, this approach allows to deal with curved edges at an intermediate scale, between the small scale (treatable by homogenization) and the bigger one (where a finer mesh would make the curve flatter and flatter). The proposed method is supported by theoretical analysis and numerical tests
We extend the basic idea of Serendipity Virtual Elements from the previous case (by the same autho...
We compute low-cardinality algebraic cubature formulas on convex or concave polygonal elements with ...
We present a high-order mesh curving method where the mesh boundary is enforced to match a target vi...
In this paper we initiate the investigation of Virtual Elements with curved faces. We consider the c...
In the present paper we construct virtual element spaces that are H(div)-conforming and H(curl)-conf...
In this work, we propose an extension of the mixed Virtual Element Method (VEM) for bi-dimensional c...
We discuss the application of Virtual Elements to linear plate bending problems, in the Kirchhoff-Lo...
The virtual element method (VEM) for curved edges with applications to contact mechanics is outlined...
In the present work we generalize the curvilinear Virtual Element technology, introduced for a simpl...
Due to its unique and intriguing properties, polygonal and polyhedral discretization is an emerging ...
We present, on the simplest possible case, what we consider as the very basic features of the (brand...
In this paper, we propose the extended virtual element method (X-VEM) to treat singularities and cra...
Also Proceedings of the Annual Symposium on Geometry ProcessingInternational audienceWe propose a me...
We extend the basic idea of Serendipity Virtual Elements from the previous case (by the same autho...
We compute low-cardinality algebraic cubature formulas on convex or concave polygonal elements with ...
We present a high-order mesh curving method where the mesh boundary is enforced to match a target vi...
In this paper we initiate the investigation of Virtual Elements with curved faces. We consider the c...
In the present paper we construct virtual element spaces that are H(div)-conforming and H(curl)-conf...
In this work, we propose an extension of the mixed Virtual Element Method (VEM) for bi-dimensional c...
We discuss the application of Virtual Elements to linear plate bending problems, in the Kirchhoff-Lo...
The virtual element method (VEM) for curved edges with applications to contact mechanics is outlined...
In the present work we generalize the curvilinear Virtual Element technology, introduced for a simpl...
Due to its unique and intriguing properties, polygonal and polyhedral discretization is an emerging ...
We present, on the simplest possible case, what we consider as the very basic features of the (brand...
In this paper, we propose the extended virtual element method (X-VEM) to treat singularities and cra...
Also Proceedings of the Annual Symposium on Geometry ProcessingInternational audienceWe propose a me...
We extend the basic idea of Serendipity Virtual Elements from the previous case (by the same autho...
We compute low-cardinality algebraic cubature formulas on convex or concave polygonal elements with ...
We present a high-order mesh curving method where the mesh boundary is enforced to match a target vi...