A lowest order stabilization-free mixed Virtual Element Method
Andrea Borio, Carlo Lovadina, Francesca Marcon, Michele Visinoni

TL;DR
This paper introduces a stabilization-free mixed Virtual Element Method for the Laplacian problem, reducing computational costs while ensuring stability and convergence, supported by theoretical analysis and numerical tests.
Contribution
It presents the first stabilization-free Virtual Element Method for the Laplacian in mixed form, using a projection on harmonic polynomial gradients to enhance efficiency.
Findings
The method is stable and convergent on quadrilateral meshes.
Numerical tests confirm the scheme's effectiveness.
Computational costs are reduced compared to traditional methods.
Abstract
We initiate the design and the analysis of stabilization-free Virtual Element Methods for the laplacian problem written in mixed form. A Virtual Element version of the lowest order Raviart-Thomas Finite Element is considered. To reduce the computational costs, a suitable projection on the gradients of harmonic polynomials is employed. A complete theoretical analysis of stability and convergence is developed in the case of quadrilateral meshes. Some numerical tests highlighting the actual behaviour of the scheme are also provided.
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Taxonomy
TopicsAdvanced Numerical Methods in Computational Mathematics · Computational Fluid Dynamics and Aerodynamics · Numerical methods for differential equations
