
TL;DR
This paper introduces a white-noise-aided control method that stabilizes perturbed systems more efficiently, reducing transient times and costs, with demonstrated effectiveness on a chaotic system and various noise types.
Contribution
It develops a noise-aiding stabilization approach for perturbed systems, proving its effectiveness and efficiency through theoretical analysis and numerical examples.
Findings
Noise-aided control stabilizes perturbed systems more effectively.
White noise reduces control transient times and costs.
Common noise is most efficient among various noise types.
Abstract
The issue of white-noise-aided control is considered and its availability is proved. And a noise-aiding way is developed to stabilize perturbed systems to be input-to-state stable (ISS) with respect to (w.r.t.) perturbations. To illustrate its effectiveness, the white-noise-aided control of a parameter perturbed chaotic Chen system is given as an example. And numerically, it shows that, comparing to the un-noise-aided case, noise-aided control can not only shorten the control's transient process but also save its cost. These are also demonstrated by various aiding noises such as common (symmetric) noise and non-common (independent or asymmetric) noise, where common noise is found to be the most efficient in enhancing the control.
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Taxonomy
TopicsChaos control and synchronization · Fault Detection and Control Systems · Neural Networks and Applications
