Uniformly polynomially stable approximations for a class of second order evolution equations
Zayd Hajjej

TL;DR
This paper demonstrates that adding a numerical viscosity term to semi-discrete schemes for certain damped vibration systems ensures uniform polynomial stability across discretization parameters, improving approximation reliability.
Contribution
It introduces a novel numerical viscosity approach that guarantees uniform polynomial stability in semi-discrete approximations of second order evolution equations.
Findings
Numerical viscosity ensures uniform polynomial stability
Semi-discrete schemes accurately approximate damped vibrations
Stability is maintained independently of discretization size
Abstract
In this paper we study time semi-discrete approximations of a class of polynomially stable infinite dimensional systems modeling the damped vibrations. We prove that adding a suitable numerical viscosity term in the numerical scheme, one obtains approximations that are uniformly polynomially stable with respect to the discretization parameter.
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Taxonomy
TopicsStability and Controllability of Differential Equations · Advanced Mathematical Modeling in Engineering · Numerical methods for differential equations
