Open‐Loop Control of Shallow Water Waves in a Tube With Moving Boundary in Material‐Fixed Coordinates

ABSTRACT Open‐loop control design for a one‐dimensional shallow water model with moving boundary and arbitrary cross section is considered. Despite the moving boundary, the transition to material‐fixed coordinates allows to reformulate the model on a constant spatial domain. The focus is on achieving smooth transitions between steady states. Apart from the transition to material‐fixed coordinates, the control design closely resembles the procedure already developed for the original model. Introducing the water level at the nonactuated boundary as a flat output, the given boundary value problem is linked to a Cauchy boundary value problem. The latter can be solved by the method of characteristics. The parameterization of the solutions of the shallow water equations obtained this way simplifies the control design. Numerical validation of the design relies on energy‐preserving spatial discretization.

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Publication Details

Journal
PAMM
Published
2025-01-22
DOI
https://doi.org/10.1002/pamm.202400195
Primary Topic
Stability and Controllability of Differential Equations
Type
article
Field-Weighted Citation Impact
0.00

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article

Open‐Loop Control of Shallow Water Waves in a Tube With Moving Boundary in Material‐Fixed Coordinates

Frank Woittennek, Luca Mayer
PAMM
Stability and Controllability of Differential Equations
article

Open‐Loop Control of Shallow Water Waves in a Tube With Moving Boundary in Material‐Fixed Coordinates

Frank Woittennek, Luca Mayer
article en

Abstract

ABSTRACT Open‐loop control design for a one‐dimensional shallow water model with moving boundary and arbitrary cross section is considered. Despite the moving boundary, the transition to material‐fixed coordinates allows to reformulate the model on a constant spatial domain. The focus is on achieving smooth transitions between steady states. Apart from the transition to material‐fixed coordinates, the control design closely resembles the procedure already developed for the original model. Introducing the water level at the nonactuated boundary as a flat output, the given boundary value problem is linked to a Cauchy boundary value problem. The latter can be solved by the method of characteristics. The parameterization of the solutions of the shallow water equations obtained this way simplifies the control design. Numerical validation of the design relies on energy‐preserving spatial discretization.

PAMMVol. 25(1)
UMIT - Private Universität für Gesundheitswissenschaften, Medizinische Informatik und Technik (AT)
Austrian Science Fund
Openalex Percentile: Top 99%
Stability and Controllability of Differential Equations
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