A method and system for cooperative planning and fault-tolerant control of manned-unmanned team under communication constraints
By combining a hierarchical collaborative system and cross-layer optimization methods with fuzzy wavelet neural networks and self-triggered communication, the collaborative control problem of UAV swarms under communication constraints was solved, achieving efficient and robust formation control and obstacle avoidance capabilities, and adapting to mission execution in complex environments.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- NORTHWESTERN POLYTECHNICAL UNIV
- Filing Date
- 2026-04-09
- Publication Date
- 2026-07-14
AI Technical Summary
Existing technologies struggle to achieve efficient collaborative control of large-scale UAV swarms under communication-constrained conditions. They suffer from heavy computational and communication burdens, formation stability affected by actuator failures and external disturbances, link congestion and excessive energy consumption due to limited communication bandwidth, and suboptimal performance due to independent tuning of upper-layer planning parameters and lower-layer control parameters.
A hierarchical collaborative system is used to construct the initial state space. Cross-layer optimization is performed through a multi-task evolutionary algorithm. Fault-tolerant control is achieved by combining a fuzzy wavelet neural network and a finite-time performance function. Dynamic grouping and an improved artificial potential field method are introduced to generate deadlock-free trajectories. Self-triggered communication decision is used to predict control update times on demand, thereby reducing communication frequency.
It achieves efficient collaborative planning and fault-tolerant control of UAV swarms in communication-constrained environments, reduces state dimensions and communication burden, improves formation obstacle avoidance flexibility and robustness, avoids deadlock and Zeno's phenomenon, and adapts to reliability and mission efficiency under resource-constrained and fault-interference conditions.
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