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Energy management strategy for integration of fuel cell-electrolyzer technologies in microgrid

机译:微电网中燃料电池电解槽技术集成的能源管理策略

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Proton exchange membrane technology is proven for stationary application but one of crucial aspect of this technology is its durability which is subjected to the operating conditions i.e. load transients, switch ON/OFF events and idling conditions. Such operating conditions may lead to premature failure of electrolyzer (ELY) and fuel cell (FC). However, transient load variation and rapid switch ON/OFF are unavoidable conditions in microgrid due to erratic variation in the photovoltaic source power during cloudy condition and load transients. Therefore, it is challenging to develop a control (energy management) strategy which can ensure the smooth operation of FC and ELY and achieve the others multi objectives such as balance in demand and supply, higher energy efficiency, reliability and resiliency. The smooth operations of FC and ELY can be achieved by controlling the rate of change of power during transient operating conditions. Present study is dedicated to energy management system (EMS) of hydrogen storage based microgrid. In present study, photovoltaic (PV) generator is used as primary generator while battery and hydrogen (metal hydride) units are used as energy storage mediums. Different control strategies i.e. model predictive control (MPC), hysteresis band control strategy (HBCS), equivalent consumption and minimization strategy (ECMS) and state machine (SM) are used in proposed EMS. The operating cost of system is found to be 8.79, 8.88, 29.54 and 14.73 USD while efficiency is obtained 79.0%, 80.5%,77.4% and 80.0% in HBCS, MPC, ECMS and SM modes, respectively. (c) 2021 Hydrogen Energy Publications LLC. Published by Elsevier Ltd. All rights reserved.
机译:质子交换膜技术被证明是静止应用,但该技术的一个关键方面是其耐久性,该耐用性是在运行条件下进行的耐用性,即负载瞬变,开启/关闭事件和空转条件。这种操作条件可能导致电解槽(ILY)和燃料电池(Fc)过早失效。然而,由于在多云状态和负载瞬变期间光伏源功率不稳定,微电网中的瞬态负载变化和快速开关是不可避免的。因此,开发一种控制(能源管理)策略是挑战,该策略可以保证FC的顺利运行,并实现其他多目标,如需求和供应的平衡,更高的能效,可靠性和弹性。 FC的平滑操作,并且可以通过控制瞬态操作条件期间的电力变化率来实现。本研究专用于基于储氢的微电网的能量管理系统(EMS)。在本研究中,光伏(PV)发电机用作主发电机,而电池和氢化物(金属氢化物)单元用作能量存储介质。在提出的EMS中使用不同的控制策略等于模型预测控制(MPC),滞后带控制策略(HBC),等效消耗和最小化策略(ECM)和状态机(SM)。系统的运营成本是8.79,888,29.54和14.73美元,分别获得79.0%,80.5%,77.4%和80.0%的HBC,MPC,ECM和SM模式。 (c)2021氢能出版物LLC。 elsevier有限公司出版。保留所有权利。

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