A Spectral Exponential Stability Criterion for Integral Difference Equations and Delay Differential Equations in various state spaces
Adam Braun (1), Jean Auriol (1), Lucas Brivadis (1) ((1) L2S)

TL;DR
This paper extends the spectral exponential stability criterion for integral and delay differential equations to various functional state spaces, including Lebesgue, Borel measurable, and bounded variation spaces.
Contribution
It generalizes the classical stability criterion, showing that root location conditions remain valid across multiple functional state spaces.
Findings
Stability criterion applies to Lebesgue spaces
Criterion valid for Borel measurable functions
Applicable to functions with bounded variation
Abstract
It is well-known that the exponential stability of Integral Difference Equations and Delay Difference Equations, in the usual state space of continuous functions, is equivalent to the location of the roots of its associated characteristic equation strictly in the open left half-plane (see e.g. [16, Chapter 9]). In this paper, we use results from [15, Chapter 4] to show that this characterization still holds for other functional state spaces: Lebesgue spaces, the space of Borel measurable bounded functions, and the space of functions with bounded variation.
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Taxonomy
TopicsNonlinear Differential Equations Analysis · Stability and Controllability of Differential Equations · Fixed Point Theorems Analysis
