Energy dissipation formulas for boundary control of elastic structures: A higher-order Green’s identity approach

This paper presents explicit formulas for the energy dissipation rate in boundary control of elastic structures using higher-order Green’s identities in a port-Hamiltonian framework. A unified expression is derived for systems of order 2 m that generalizes known results for Timoshenko beams and Kirchhoff plates. This formula facilitates passivity verification and leads directly to optimal linear-quadratic boundary feedback laws in the form of viscous damping. The analysis is extended to non-collocated boundary control and establishes generalized passivity conditions. Numerical simulations validate the exponential stability achieved with the proposed control laws and illustrate the trade-offs between damping strength and control effort.

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Publication Details

Journal
Journal of Vibration and Control
Published
2026-05-22
DOI
https://doi.org/10.1177/10775463261450861
Primary Topic
Control and Stability of Dynamical Systems
Type
article
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article

Energy dissipation formulas for boundary control of elastic structures: A higher-order Green’s identity approach

Toufik Ennouari
Journal of Vibration and Control
Control and Stability of Dynamical Systems
article

Energy dissipation formulas for boundary control of elastic structures: A higher-order Green’s identity approach

Toufik Ennouari
article en

Abstract

This paper presents explicit formulas for the energy dissipation rate in boundary control of elastic structures using higher-order Green’s identities in a port-Hamiltonian framework. A unified expression is derived for systems of order 2 m that generalizes known results for Timoshenko beams and Kirchhoff plates. This formula facilitates passivity verification and leads directly to optimal linear-quadratic boundary feedback laws in the form of viscous damping. The analysis is extended to non-collocated boundary control and establishes generalized passivity conditions. Numerical simulations validate the exponential stability achieved with the proposed control laws and illustrate the trade-offs between damping strength and control effort.

Journal of Vibration and Control
Chouaib Doukkali University (MA)
Openalex Percentile: Top 6%
Control and Stability of Dynamical Systems
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