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Torques and the speed vibrations reducing and optimization of asynchronous motor with ECCA-PID controlling in power system

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Abstract

In renewable energy-sourced power systems, asynchronous motors serve as elements that both produce and consume electricity. The stability and efficiency of the asynchronous motor in renewable energy system should be considered. Although performance optimization studies have been carried out using power circuits that control the asynchronous motor fed with solar energy and control units such as proportional, integral, derivation (PID), and Fuzzy logic; They may be insufficient to eliminate and reduce vibrations in the output values of an induction motor fed with a renewable energy source. Losses occur as the system performance decreases constantly due to oscillations. In this study, an induction motor power system is optimized with the extra control coefficient (ECCA)-PID, which provides semi-linear control for the first time, unlike the power systems controlled by other linear controllers used so far to reduce oscillations, and the vibration losses are eliminated. The speed oscillations, torque oscillations, and oscillation losses of the induction motor in the system are controlled by conventional PID, and Fuzzy logic controllers in order to demonstrate the effectiveness of the proposed method in simulation and experimentation. Then, the results are compared after the proposed method are examined. As a result of the comparisons, while the motor oscillations and losses in the power system continue throughout the control period in traditional control methods, the proposed method reduces the losses to zero in a large part of the control period.

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  1. Department of Aviation Electric-Electronics, School of Civil Aviation, Erzincan Binali Yıldırım University, Erzincan, Turkey

    EROL CAN

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  1. EROL CAN
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CAN, E. Torques and the speed vibrations reducing and optimization of asynchronous motor with ECCA-PID controlling in power system. Sādhanā 49, 126 (2024). https://doi.org/10.1007/s12046-024-02491-2

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