Saved in:
Bibliographic Details
Main Authors: Hughes, Timothy H., Branford, Edward H.
Format: Preprint
Published: 2021
Subjects:
Online Access:https://arxiv.org/abs/2102.08855
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866913563825668096
author Hughes, Timothy H.
Branford, Edward H.
author_facet Hughes, Timothy H.
Branford, Edward H.
contents The dissipativity concept sits at the intersection of physics, systems theory, and control engineering, as a natural generalisation of passive systems that dissipate energy. It relates the external behavior of systems to their internal state, and connects the subjects of optimal control, algebraic Riccati equations, linear matrix inequalities, complex functions, and spectral factorization. Within control, its applications include the analysis and design of interconnected systems (such as cyber-physical systems), robustness, and the absolute stability problem, and network synthesis (of electrical, mechanical, and multi-physics systems). This article details recent developments in the treatment of dissipativity and the related concept of reciprocity for systems that are not necessarily controllable and need not lend themselves naturally to an input-state-output perspective, as is the case for many physical and passive systems. We illustrate these concepts using simple electric circuit and mechanical network examples.
format Preprint
id arxiv_https___arxiv_org_abs_2102_08855
institution arXiv
publishDate 2021
record_format arxiv
spellingShingle Dissipativity, reciprocity and passive network synthesis: from Jan Willems' seminal Dissipative Dynamical Systems papers to the present day
Hughes, Timothy H.
Branford, Edward H.
Optimization and Control
Systems and Control
93C05, 93C35, 34H05, 49N10, 70Q05
The dissipativity concept sits at the intersection of physics, systems theory, and control engineering, as a natural generalisation of passive systems that dissipate energy. It relates the external behavior of systems to their internal state, and connects the subjects of optimal control, algebraic Riccati equations, linear matrix inequalities, complex functions, and spectral factorization. Within control, its applications include the analysis and design of interconnected systems (such as cyber-physical systems), robustness, and the absolute stability problem, and network synthesis (of electrical, mechanical, and multi-physics systems). This article details recent developments in the treatment of dissipativity and the related concept of reciprocity for systems that are not necessarily controllable and need not lend themselves naturally to an input-state-output perspective, as is the case for many physical and passive systems. We illustrate these concepts using simple electric circuit and mechanical network examples.
title Dissipativity, reciprocity and passive network synthesis: from Jan Willems' seminal Dissipative Dynamical Systems papers to the present day
topic Optimization and Control
Systems and Control
93C05, 93C35, 34H05, 49N10, 70Q05
url https://arxiv.org/abs/2102.08855