Data-Driven Output-Based Approach to the Output Regulation Problem of Unknown Linear Systems via Value Iteration
Haoyan Lin, Jie Huang

TL;DR
This paper introduces a novel data-driven output-based method using value iteration to solve the output regulation problem for unknown linear systems, eliminating the need for explicit observer gain design.
Contribution
It develops a systematic data-driven approach for output regulation of unknown linear systems via value iteration, linking output-feedback and state-feedback control laws.
Findings
Successfully reduces output regulation to state-feedback design for augmented systems.
Establishes a relation between data-driven output-feedback and state-feedback control laws.
Provides a new output-feedback control law that does not rely on explicit observer gain.
Abstract
The output regulation problem for unknown linear systems has been studied using state-based and output-based internal model approaches in the special case with no disturbances. This paper further investigates the output regulation problem for unknown linear systems using a data-driven output-based approach via value iteration. For this purpose, we first develop a novel output-feedback control law that does not explicitly rely on the observer gain to solve the output regulation problem. We then show that the data-driven approach for designing an output-feedback control law for the given plant can be reduced to the data-driven design of a state-feedback control law for a well-defined augmented auxiliary system. As a result, we develop a systematic data-driven approach to solve the output regulation problem for unknown linear systems via value iteration. Finally, we establish a relation…
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Taxonomy
TopicsAdaptive Dynamic Programming Control · Control Systems and Identification · Model Reduction and Neural Networks
