A Double-layered Energy Management Strategy for Fuel Cell Hybrid Power Source System of More Electric Aircraft

Wenzhuo Shi, Y. Huangfu, Yuhui Ma, Liangcai Xu, Zelong Zhang, Tianyi Yu
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引用次数: 1

Abstract

In hybrid power source system (HPSS) of more electric aircraft (MEA), energy management strategy (EMS) distributes power of each power sources and single-objective optimization or multi-objective optimization can be realized. A double-layered (DOL) energy management strategy which is composed of fuzzy control layer for lithium battery and variable power reference filter layer for fuel cell system is proposed in this paper. The first layer is the fuzzy control layer which adds the extra input power reference of fuel cell, and it is related to efficiency of fuel cell system and state of charge of lithium battery. Second layer possesses a variable parameter which can keep the power reference of fuel cell close to the highest efficiency point and it has a good effect on the health and efficiency of fuel cell. By combining two layers, both SOC of lithium battery and efficiency of fuel cell system are regarded as the optimization objectives. For verifying proposed EMS, it is compared with finite state machine (FSM) energy management strategy and the simulation results shows that proposed EMS outdoes FSM EMS. In 50% initial SOC condition, average efficiency of fuel cell system and equivalent hydrogen consumption of the proposed EMS are 2.13% higher and 1.7g lower than FSM respectively, and they are 1.84% higher and 1.5g lower than FSM in 80% initial SOC condition. In addition, the proposed EMS is a real-time approach without demand of much calculation resource.
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多电动飞机燃料电池混合动力系统的双层能量管理策略
在多电动飞机混合动力源系统中,能量管理策略(EMS)对各动力源的功率进行分配,可实现单目标优化或多目标优化。提出了一种由锂电池模糊控制层和燃料电池系统变功率参考滤波层组成的双层能量管理策略。第一层是模糊控制层,它增加了燃料电池的额外输入功率参考,它与燃料电池系统的效率和锂电池的充电状态有关。第二层具有可变参数,使燃料电池的功率基准保持在最高效率点附近,对燃料电池的健康和效率有很好的影响。两层结合,以锂电池荷电状态和燃料电池系统效率为优化目标。为了验证所提出的能量管理策略,将其与有限状态机(FSM)能量管理策略进行了比较,仿真结果表明所提出的能量管理策略优于有限状态机(FSM)能量管理策略。在50%初始荷电状态下,EMS的燃料电池系统平均效率和等效氢耗分别比FSM高2.13%和低1.7g;在80%初始荷电状态下,EMS的平均效率和等效氢耗分别比FSM高1.84%和低1.5g。此外,该方法是一种不需要大量计算资源的实时方法。
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