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Optimized Type-2 Fuzzy Frequency Control for Multi-Area Power Systems
The objective of this study is minimizing the frequency deviation due to the load variations and fluctuations of renewable energy resources. In this paper, a new type-2 fuzzy control (T2FLC) approach is presented for load frequency control (LFC) in power systems with multi-areas, demand response (DR), battery energy storage system (BESS), and wind farms. BESS is used to reduce the frequency deviations caused by wind energy, and DR is utilized to increase network stability due to fast load changes. The suggested T2FLC is online tuned based on the extended Kalman filter to improve the LFC accuracy in coordination of DR, BESS, and wind farms. The system dynamics are unknown, and the system Jacobian is extracted by online modeling with a simple multilayer perceptron neural network (MLP-NN). The designed LFC is evaluated through simulating on 10-machine New England 39-bus test system (NETS-39b) in four scenarios. Simulation results verifies the desired performance, indicating its superiority compared to a classical PI controllers, and type-1 fuzzy logic controllers (FLCs). The mean of improvement percentage is about 20%.
- Óbuda University Hungary
- TU Dresden Germany
- Ghent University Belgium
- Budapest Business School Hungary
- University of Mianwali Pakistan
Artificial intelligence, Renewable energy, Technology and Engineering, extended Kalman filter, electrical power systems, AGC, type-2 adaptive neuro-fuzzy, Type-2 adaptive neuro-fuzzy, frequency control, Machine learning, Wind farms, Training, Wind energy, Demand response, Load modeling, STABILITY, Généralités, CONTROL STRATEGY, artificial intelligence, Power system stability, Extended Kalman filter, TK1-9971, Fuzzy logic, machine learning, demand response, Frequency control, Electrical engineering. Electronics. Nuclear engineering, ENERGY-STORAGE
Artificial intelligence, Renewable energy, Technology and Engineering, extended Kalman filter, electrical power systems, AGC, type-2 adaptive neuro-fuzzy, Type-2 adaptive neuro-fuzzy, frequency control, Machine learning, Wind farms, Training, Wind energy, Demand response, Load modeling, STABILITY, Généralités, CONTROL STRATEGY, artificial intelligence, Power system stability, Extended Kalman filter, TK1-9971, Fuzzy logic, machine learning, demand response, Frequency control, Electrical engineering. Electronics. Nuclear engineering, ENERGY-STORAGE
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