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August 1, 2025Journal of Physics Conference Series0 citationsOpen Access

A control strategy for electrolytic hydrogen production loads participating in grid frequency regulation

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ZYZ. Y. YouBLBin LiuXDXiaolong Du

Key Points

  • This control strategy significantly suppresses frequency deviations, confirming its effectiveness in grid frequency regulation.
  • The negative feedback controller achieves rapid intervention, utilizing a new voltage-power coupling model for EHP loads.
  • Assessment shows that integrating EHP loads into frequency regulation enhances overall system stability and performance.
  • Findings highlight the potential value of large-scale electrolytic hydrogen production in supporting grid ancillary services.

Abstract

Abstract The integration of high-proportion renewable energy sources exacerbates frequency stability issues in power systems, while traditional frequency regulation resources face dual bottlenecks in regulation capacity and speed. This paper proposes a coordinated control strategy for grid primary frequency regulation based on electrolytic hydrogen production (EHP) loads. First, a voltage-power coupling model (CVR model) is established to quantify the dynamic response characteristics of EHP loads. Second, a negative feedback loop for EHP loads is introduced into the classical frequency response model, deriving an analytical relationship between system frequency deviation and load regulation coefficients. Finally, a negative feedback controller based on bus voltage regulation is designed to achieve rapid suppression of frequency deviations. This study provides a theoretical foundation for large-scale EHP loads to participate in grid ancillary services.

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Cite This Study

You et al. (2025) studied this question.

synapsesocial.com/papers/68af431bad7bf08b1ead1aa3https://doi.org/10.1088/1742-6596/3065/1/012020
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