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储能系统技术 储能系统 ★ 5.0

一种用于港口耦合氢-电储能系统容量配置与能量管理的分层多目标协同优化框架

A hierarchical multi-objective co-optimization framework for sizing and energy management of coupled hydrogen-electricity energy storage systems at ports

作者 Pingxu Ge · Daogui Tang · Yuji Yuan · Josep M. Guerrero · Enrico Zio
期刊 Applied Energy
出版日期 2025年1月
卷/期 第 384 卷
技术分类 储能系统技术
技术标签 储能系统
相关度评分 ★★★★★ 5.0 / 5.0
关键词 A PIMES integrating hydrogen with the existing energy system is designed based on real application at ports.
语言:

中文摘要

摘要 氢电一体化综合多能系统是减少港口碳排放的有前景的技术途径。然而,可再生能源出力的随机性以及港口内可再生能源发电与负荷需求之间的不平衡性,迫切需要设计合适的耦合氢-电储能系统(CHEESS)。本文针对随机不平衡的港口综合多能系统(PIMES),提出了一种CHEESS配置的多目标优化模型,旨在通过容量配置与能量管理的协同优化,最小化系统的全生命周期成本和碳排放。为此,本文提出了一种分层两阶段求解框架以应对该多目标优化问题。所提出的优化框架被应用于宁波舟山港的一个实际PIMES案例中。结果表明,相较于基准方案,所提方法在整个系统生命周期内可节省10.54%的经济成本和19.67%的碳排放量。本研究证明,所提出的优化框架具备产生显著经济与环境效益的潜力,为港口管理部门实施CHEESS提供了可行的技术方案,有助于推动港口运营的可持续发展。

English Abstract

Abstract Hydrogen-electricity integrated multi-energy systems are promising approaches to reduce carbon emissions in ports. However, the stochastic nature of renewable energy and the imbalance between the renewable generation and load demand in ports necessitate the design of an appropriate coupled hydrogen-electricity energy storage systems (CHEESS). This paper proposes a multi-objective optimization model for CHEESS configuration in random imbalanced port integrated multi-energy systems (PIMES), aiming to minimize its life-cycle cost and carbon emissions through co-optimization of sizing and energy management . A hierarchical two-stage framework is proposed to solve the multi-objective model. The proposed optimization framework is applied to a real PIMES at the Ningbo-Zhoushan Port. The results show that the proposed method can save 10.54 % of the monetary cost and 19.67 % of carbon emissions over the entire life-cycle of the system. The study demonstrates that the proposed framework has the potential to generate significant economic and environmental benefits and provides a feasible solution for port authorities seeking to implement CHEESS, aiming to promote sustainability in port operations.
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SunView 深度解读

该港口氢电耦合储能系统优化框架对阳光电源ST系列储能变流器和PowerTitan系统具有重要应用价值。论文提出的分层多目标协同优化方法可直接应用于港口场景的储能系统配置,结合阳光电源GFM/GFL控制技术和iSolarCloud平台的预测性维护功能,能够实现可再生能源波动性管理和负荷需求平衡。宁波舟山港案例验证的10.54%成本节约和19.67%碳减排效果,为阳光电源拓展港口综合能源管理解决方案提供了技术路径,特别是在储能系统容量优化和能量管理策略方面具有创新借鉴意义。