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Overlapping state-input-output decomposition of complex systems with guaranteed structural observability and
Sahar Maleki1, Mehdi Rahmani1, Hassan Zarabadipour1
1Department of Electrical Engineering, Imam-Khomeini International University, Qazvin, Iran.
This study introduces an overlapping decomposition method for complex dynamic systems, ensuring subsystem observability and controllability. The approach systematically detects disjoint and overlapping structures, simplifying analysis and control.
Area of Science:
- Control Systems Engineering
- Systems Theory
- Optimization
Background:
- Complex dynamic systems present significant analytical and control challenges.
- Decomposition into lower-order subsystems is a key strategy to manage complexity.
- Existing methods may not effectively handle overlapping subsystem structures.
Purpose of the Study:
- To propose an overlapping ϵ-decomposition method for complex dynamic systems.
- To guarantee structural observability and controllability of the decomposed subsystems.
- To systematically detect both disjoint and overlapping structures within dynamic systems.
Main Methods:
- Formulation of a single optimization problem for system decomposition.
- Development of an approach based on optimization and graph theory.
- Extension of decomposition to ensure structural observability and controllability.
Main Results:
- A novel overlapping ϵ-decomposition technique is presented.
- The method effectively decomposes systems into weakly coupled subsystems with potential overlaps.
- Simulations demonstrate the approach's effectiveness on ship boiler and power system case studies.
Conclusions:
- The proposed optimization-based decomposition systematically identifies system structures.
- The method ensures essential properties like structural observability and controllability.
- This approach offers a robust tool for analyzing and controlling complex dynamic systems.
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