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Multiple Intentional Delays Can Facilitate Fast Consensus and Noise Reduction in a Multiagent System
IEEE Transactions on Cybernetics
|July 12, 2018
Summary
We introduce a novel derivative-free multiple-delay proportional-retarded (PR) protocol for fast consensus in multiagent systems. This method uses intentional delays to create robust controllers, enhancing convergence speed and stability.
Area of Science:
- Control Theory
- Robotics
- Networked Systems
Background:
- Achieving fast consensus in large-scale multiagent systems is challenging.
- Traditional controllers can be sensitive to noise, impacting performance.
- Derivative-based controllers require accurate velocity measurements, which are often noisy.
Purpose of the Study:
- To develop a derivative-free control scheme for efficient consensus.
- To mitigate noise effects by relying solely on position measurements.
- To enable fast and stable convergence in multiagent systems.
Main Methods:
- Utilizing a multiple-delay proportional-retarded (PR) control protocol.
- Intentionally introducing delays to create derivative-like control actions.
- Analyzing consensus dynamics through spectral abscissa and separation.
Main Results:
- Successfully placed the spectral abscissa of consensus dynamics at a desired locus.
- Achieved user-defined spectral separation, directly influencing convergence.
- Demonstrated the effectiveness of the PR protocol through case studies.
Conclusions:
- The multiple-delay PR protocol offers a robust and effective method for achieving fast consensus.
- The derivative-free approach enhances system stability by reducing noise sensitivity.
- Analytical design rules and limitations provide a framework for practical implementation.
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