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华东理工大学信息科学与工程学院,上海 200237
Received:28 March 2026,
Revised:2026-05-09,
Accepted:09 May 2026,
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LIU Jingxin, ZHAO Liang. Deep reinforcement learning for scheduling of green hydrogen production process[J/OL]. CIESC Journal, 2026.
LIU Jingxin, ZHAO Liang. Deep reinforcement learning for scheduling of green hydrogen production process[J/OL]. CIESC Journal, 2026. DOI: 10.11949/0438-1157.20260420.
针对风光发电波动导致电解槽负载频繁变化、弃电与购电并存等问题,本文建立了光伏—风电—储能—电解槽耦合制氢过程模型,并将在线调度表述为马尔可夫决策过程;在多目标奖励中考虑产氢收益、购电成本、弃电抑制、负载平滑及储能荷电状态(SOC)安全约束,采用软演员-评论家(SAC)算法获得最优调度策略。基于NASA气象数据与电价序列的算例表明,所提方法在多场景下比专家规则与模型预测控制取得更高产氢量与可再生能源利用率,并显著降低弃电,且单步推理开销可满足5 min调度周期的实时应用需求。
To address the issues of frequent load fluctuations of electrolyzers caused by volatile wind and solar power
as well as the coexistence of renewable energy curtailment and electricity purchase costs
this paper establishes a coupled photovoltaic-wind-energy storage-electrolyzer hydrogen production system model
and formulates the online scheduling problem as a Markov decision process. The multi-objective reward function comprehensively considers hydrogen production benefits
electricity purchase costs
renewable energy curtailment mitigation
load smoothing
and state-of-charge (SOC) security constraints
and the Soft Actor-Critic (SAC) algorithm is adopted to obtain the optimal scheduling strategy. Case studies based on NASA meteorological data and electricity price sequences demonstrate that the proposed method achieves higher hydrogen production and renewable energy utilization efficiency than expert rules and model predictive control under various scenarios
significantly reduces renewable energy curtailment
and the single-step inference cost can meet the real-time application requirements of a 5-minute scheduling cycle.
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