Numerical Modeling and Convergence Analysis of the Coupled Cahn-Hilliard-Navier-Stokes System Using a Combined Scalar Auxiliary Variable and HDG Scheme
ORAL
Abstract
In this presentation, we introduce an overview and a novel numerical approach for solving the Cahn-Hilliard-Navier-Stokes system. Our method integrates the Scalar Auxiliary Variable (SAV) technique with a Hybridized-Discontinuous Galerkin (HDG) scheme. Initially, we focus on the development and analysis of a first-order numerical scheme and establish its convergence properties. Through extensive numerical simulations, we validate the effectiveness of the proposed scheme in accurately simulating the Cahn-Hilliard-Navier-Stokes system. Additionally, we provide an analytical convergence proof to support our findings. This work enhances our understanding of the system dynamics and offers a robust numerical framework for future simulations.
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Publication: Planned: Chakraborty, Sanchita, Distler, Adam, Liu, Alexis, and Yue, Yukun. Hybridized-Discontinuous-Galerkin-Scalar Auxilary Variable Scheme for the Coupled Navier Stokes-Cahn Hiliard System.
Planned: Chakraborty, Sanchita, Distler, Adam, Liu, Alexis, and Yue, Yukun. Convergence of a Hybridized-Discontinuous-Galerkin-Scalar Auxilary Variable Scheme for the Coupled Navier Stokes-Cahn Hiliard System.
Presenters
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Sanchita Chakraborty
University of Notre Dame
Authors
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Sanchita Chakraborty
University of Notre Dame
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Yukun Yue
University of Wisconsin - Madison
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Adam Distler
University of Wisconsin - Madison
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Alexis Liu
University of Wisconsin - Madison