Reducing Turbine Mechanical Loads Using Flow Model-Based Wind Farm Controller

    Research output: Contribution to conferencePosterResearch

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    Abstract

    Cumulated O&M costs of offshore wind farms are comparable with wind turbine CAPEX of such wind farm. In wind farms, wake effects can result in up to 80% higher fatigue loads at downstream wind turbines [1] and consequently larger O&M costs. The present work therefore investigates to reduce these loads during the provision of grid balancing services using optimal model-based wind farm control. Wind farm controllers coordinate the operating point of wind turbines in a wind farm in order to achieve a given objective. The investigated objective of the control in this work is to follow a total wind farm power reference while reducing the tower bending moments of the turbines in the wind farm. The wind farm controller is tested on a 8 turbine array, which is representative of a typical offshore wind farm. The operation of the wind farm is simulated using the dynamic wind farm simulation tool S imWindFarm [2]. SimWindFarm allows for the simultaneous simulation of the turbulent hub height flow field in the wind farm, the turbine dynamics and the wind farm control. The tests show a reduction of loads when compared to other optimal wind farm control approaches. Future work shall enhance the controller with more advanced turbine fatigue models in order to further improve the controller’s performance.
    Original languageEnglish
    Publication date2017
    Publication statusPublished - 2017
    EventOffshore Wind Energy 2017 - Excel, London, United Kingdom
    Duration: 6 Jun 20178 Jun 2017
    http://offshorewind2017.com/

    Conference

    ConferenceOffshore Wind Energy 2017
    LocationExcel
    Country/TerritoryUnited Kingdom
    CityLondon
    Period06/06/201708/06/2017
    Internet address

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