Switching Among Feedback-Linearizing Output Sets (Melds): Dwell-Time and Compatibility Guarantees
Mirko Mizzoni, Pieter van Goor, Barbara Bazzana, Antonio Franchi

TL;DR
This paper analyzes switching among multiple feedback-linearizing output sets in nonlinear systems, providing dwell-time conditions and compatibility measures to ensure stable output tracking and bounded state errors.
Contribution
It introduces a novel analysis of output set switching in feedback-linearizable systems, including explicit dwell-time conditions and compatibility constants for stability guarantees.
Findings
Derived explicit dwell-time conditions for switching stability.
Introduced a reference-compatibility constant to measure output mismatch.
Validated results with a planar 3R manipulator example.
Abstract
We study switching among multiple square selections of output functions (melds) drawn from a deck of candidate outputs for nonlinear systems that are static feedback linearizable via outputs. Fixing an operating point, each meld induces a distinct feedback-linearizing coordinate chart defined on a common neighborhood. Switching between melds therefore produces state-dependent coordinate mismatches that are not captured by classical switched-system analyses. We quantify this effect through Lipschitz bounds on the cross-chart maps over a compact safe set and introduce a reference-compatibility constant that measures mismatch among reference families across melds. We derive an explicit dwell-time condition depending on controller decay rates and the compatibility constant, that guarantees exponential decay of the active-output tracking errors between switches, seamless tracking of outputs…
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Taxonomy
TopicsControl Systems and Identification · Adaptive Control of Nonlinear Systems · Stability and Control of Uncertain Systems
