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Deep reinforcement learning for PMSG wind turbine control via twin delayed deep deterministic policy gradient (TD3)

Darkhan Zholtayev, Matteo Rubagotti, Ton Duc

2024Optimal Control Applications and Methods10 citationsDOI

Abstract

Abstract This article proposes the use of a deep reinforcement learning method—and precisely a variant of the deep deterministic policy gradient (DDPG) method known as twin delayed DDPG, or TD3—for maximum power point tracking in wind energy conversion systems that use permanent magnet synchronous generators (PMSGs). An overview of the TD3 algorithm is provided, together with a detailed description of its implementation and training for the considered application. Simulation results are provided, also including a comparison with a model‐based control method based on feedback linearization and linear‐quadratic regulation. The proposed TD3‐based controller achieves a satisfactory control performance and is more robust to PMSG parameter variations as compared to the presented model‐based method. To the best of the authors' knowledge, this article presents for the first time an approach for generating both speed and current control loops using DRL for wind energy conversion systems.

Topics & Concepts

Reinforcement learningTurbineControl theory (sociology)ReinforcementWind powerComputer scienceControl (management)EngineeringArtificial intelligenceAerospace engineeringStructural engineeringElectrical engineeringWind Turbine Control SystemsEnergy Load and Power ForecastingAdaptive Dynamic Programming Control
Deep reinforcement learning for PMSG wind turbine control via twin delayed deep deterministic policy gradient (TD3) | Litcius