TY - JOUR T1 - APPLICATION OF A NEW DYNAMIC ANALYSIS METHOD TO PID CONTROLLED SPEED GOVERNORS IN HYDROELECTRIC POWER PLANTS TT - APPLICATION OF A NEW DYNAMIC ANALYSIS METHOD TO PID CONTROLLED SPEED GOVERNORS IN HYDROELECTRIC POWER PLANTS AU - Kahraman, Gökhan AU - Işık, Erdem PY - 2023 DA - August DO - 10.54365/adyumbd.1180531 JF - Adıyaman Üniversitesi Mühendislik Bilimleri Dergisi PB - Adıyaman University WT - DergiPark SN - 2149-0309 SP - 113 EP - 124 VL - 10 IS - 20 LA - en AB - Hydroelectric power plants are environmental-friendly as they are renewable energy sources and make great contributions to the economies. In addition, they are in the state of insurance of the electricity network, since they can respond to the power demands of the electricity network in a very short time. In this study, the effect of the speed governors dispense valve has been added to the classical control mechanism in order to accurately predict the reaction of hydroelectric power plants to the load requirement of the electrical network. As a result of the dynamic analysis, the data obtained in the simulation environment have been compared with the responses of the real hydraulic turbine. The results show that when the dynamic analysis of the speed governor dispense valve is added to the classical control mechanism, the power response behavior in the simulation environment becomes closer to the real hydraulic turbine behavior. These results will assist speed governor designers in predicting real-like behavior in hydroelectric power plants. KW - Renewable Energy KW - Hydroelectric Power KW - Power control KW - Dynamic Analysis KW - Transfer Function N2 - Hydroelectric power plants are environmental-friendly as they are renewable energy sources and make great contributions to the economies. In addition, they are in the state of insurance of the electricity network, since they can respond to the power demands of the electricity network in a very short time. In this study, the effect of the speed governors dispense valve has been added to the classical control mechanism in order to accurately predict the reaction of hydroelectric power plants to the load requirement of the electrical network. As a result of the dynamic analysis, the data obtained in the simulation environment have been compared with the responses of the real hydraulic turbine. 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