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Neuro-adaptive augmented distributed nonlinear dynamic inversion for consensus of nonlinear agents with unknown
Sabyasachi Mondal1, Antonios Tsourdos2
1Aerospace Engineering, Cranfield University, MK430AL, UK. sabyasachi.mondal@cranfield.ac.uk.
This study introduces a new neuro-adaptive augmented distributed nonlinear dynamic inversion (N-DNDI) controller. This advanced control method ensures nonlinear multi-agent systems achieve consensus despite unknown external disturbances.
Area of Science:
- Control Systems Engineering
- Artificial Intelligence
- Robotics
Background:
- Multi-agent systems require robust control strategies for coordinated behavior.
- Nonlinear systems present significant challenges due to their complex dynamics.
- Unknown external disturbances can destabilize system consensus.
Purpose of the Study:
- To develop a novel control technique for achieving consensus in nonlinear multi-agent systems.
- To address the challenge of unknown external disturbances in multi-agent coordination.
- To integrate neural networks with distributed nonlinear dynamic inversion for enhanced control.
Main Methods:
- A neuro-adaptive augmented distributed nonlinear dynamic inversion (N-DNDI) controller is proposed.
- The N-DNDI controller combines neural networks with distributed nonlinear dynamic inversion (DNDI).
- The theoretical underpinnings and mathematical framework of the N-DNDI controller are detailed.
Main Results:
- The proposed N-DNDI controller effectively achieves consensus in nonlinear multi-agent systems.
- The controller demonstrates robustness against unknown external disturbances.
- Simulation results validate the efficacy of the N-DNDI control scheme.
Conclusions:
- The N-DNDI controller offers a unique and effective solution for multi-agent consensus problems.
- The integration of neural networks with NDI provides a powerful approach for handling complex dynamics and disturbances.
- The study establishes a strong theoretical foundation and practical validation for the proposed control strategy.
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