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Hauptverfasser: Davron, Lucas, Lissy, Pierre, Marx, Swann
Format: Preprint
Veröffentlicht: 2026
Schlagworte:
Online-Zugang:https://arxiv.org/abs/2603.09829
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author Davron, Lucas
Lissy, Pierre
Marx, Swann
author_facet Davron, Lucas
Lissy, Pierre
Marx, Swann
contents We study cascade coupled systems, for which our prototypical example is a 1-d heat equation coupled with a 1-d wave equation. The heat component is controlled through one boundary and the information is transmitted through another one to the wave component, while the wave component does not influence the heat component. Our aim is to understand the well-posedness, controllability and stabilizability properties for such a system. Establishing well-posedness is tedious using the classical energy method, which motivates us to take advantage of the cascade structure. Taking again advantage of this structure, we prove a simultaneous exact and approximate controllability result. Finally, we obtain polynomial stabilization by means of a closed-loop control defined through the solution to a Sylvester equation. These results are all discussed in an abstract LTI framework and most of our findings apply to more general situations.
format Preprint
id arxiv_https___arxiv_org_abs_2603_09829
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Control and stabilization of cascade coupled systems: application to a 1-d heat and wave coupled system
Davron, Lucas
Lissy, Pierre
Marx, Swann
Optimization and Control
35M30, 93B05, 93C20
We study cascade coupled systems, for which our prototypical example is a 1-d heat equation coupled with a 1-d wave equation. The heat component is controlled through one boundary and the information is transmitted through another one to the wave component, while the wave component does not influence the heat component. Our aim is to understand the well-posedness, controllability and stabilizability properties for such a system. Establishing well-posedness is tedious using the classical energy method, which motivates us to take advantage of the cascade structure. Taking again advantage of this structure, we prove a simultaneous exact and approximate controllability result. Finally, we obtain polynomial stabilization by means of a closed-loop control defined through the solution to a Sylvester equation. These results are all discussed in an abstract LTI framework and most of our findings apply to more general situations.
title Control and stabilization of cascade coupled systems: application to a 1-d heat and wave coupled system
topic Optimization and Control
35M30, 93B05, 93C20
url https://arxiv.org/abs/2603.09829