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Active Power Coordination Control for Wind and Energy Storage System

Wind turbines are the one of the important steps to reach carbon zero target for countries. Therefore, there have been huge investment for wind turbines for an onshore and offshore. Due to wind fluctuations, wind turbines are still defined as an intermittent power sources in literature. In order to improve the wind turbine penetration, mitigating negative effects and increasing benefits makes important contribution to support from grid operator and market players. In addition to this, energy storage integration to wind turbine can provide further support to mitigate the negative effects such as unforeseen wind speed as well as intermittency. This positive support increases the control of active power output. In this paper, the research on the energy storage integration to wind turbine system are conducted. As a case study, 4.2 MW output power wind turbine model is used with real time measured wind speed data which is gathered from in Turkey. Li-ion energy storage system (ESS) and its technical data from one real product is chosen in this study. All necessary operation is carried out on Python.