Output Corridor Impulsive Control of First-order Continuous System with Non-local Attractivity Analysis

Fuente: arXiv
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Autores principales: Medvedev, Alexander, Proskurnikov, Anton V.
Formato: Preprint
Publicado: 2026
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author Medvedev, Alexander
Proskurnikov, Anton V.
author_facet Medvedev, Alexander
Proskurnikov, Anton V.
contents This paper addresses the design of an impulsive controller for a continuous scalar time-invariant linear plant that constitutes the simplest conceivable model of chemical kinetics. The model is ubiquitous in process control as well as pharmacometrics and readily generalizes to systems of Wiener structure. Given the impulsive nature of the feedback, the control problem formulation is particularly suited to discrete dosing applications in engineering and medicine, where both doses and inter-dose intervals are manipulated. Since the feedback controller acts at discrete time instants and employs both amplitude and frequency modulation, whereas the plant is continuous, the closed-loop system exhibits hybrid dynamics featuring complex nonlinear phenomena. The problem of confining the plant output to a predefined corridor of values is considered. The method at the heart of the proposed approach is to design a stable periodic solution, called a 1-cycle, whose one-dimensional orbit coincides with the predefined corridor. Conditions ensuring local and global attractivity of the 1-cycle are established. As a numerical illustration of the proposed approach, the problem of intravenous paracetamol dosing is considered.
format Preprint
id arxiv_https___arxiv_org_abs_2604_01959
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Output Corridor Impulsive Control of First-order Continuous System with Non-local Attractivity Analysis
Medvedev, Alexander
Proskurnikov, Anton V.
Optimization and Control
Systems and Control
Dynamical Systems
This paper addresses the design of an impulsive controller for a continuous scalar time-invariant linear plant that constitutes the simplest conceivable model of chemical kinetics. The model is ubiquitous in process control as well as pharmacometrics and readily generalizes to systems of Wiener structure. Given the impulsive nature of the feedback, the control problem formulation is particularly suited to discrete dosing applications in engineering and medicine, where both doses and inter-dose intervals are manipulated. Since the feedback controller acts at discrete time instants and employs both amplitude and frequency modulation, whereas the plant is continuous, the closed-loop system exhibits hybrid dynamics featuring complex nonlinear phenomena. The problem of confining the plant output to a predefined corridor of values is considered. The method at the heart of the proposed approach is to design a stable periodic solution, called a 1-cycle, whose one-dimensional orbit coincides with the predefined corridor. Conditions ensuring local and global attractivity of the 1-cycle are established. As a numerical illustration of the proposed approach, the problem of intravenous paracetamol dosing is considered.
title Output Corridor Impulsive Control of First-order Continuous System with Non-local Attractivity Analysis
topic Optimization and Control
Systems and Control
Dynamical Systems
url https://arxiv.org/abs/2604.01959