A novel fuel cell cathode hybrid intake structure design and control for integrated hydrogen energy utilization system

被引:2
作者
Zhu, Shihao [1 ]
Hu, Hongming [1 ]
Du, Banghua [2 ]
Lu, Xinyu [3 ]
Li, Yang [4 ]
Xie, Changjun [2 ,5 ]
Zhang, Leiqi [6 ]
Zhao, Bo [6 ]
机构
[1] Wuhan Univ Technol, Sch Automat, Wuhan 430070, Peoples R China
[2] Wuhan Univ Technol, Hubei Key Lab Adv Technol Automot Components, Wuhan 430070, Peoples R China
[3] Huazhong Univ Sci & Technol, Sch Energy & Power Engn, Wuhan 430074, Peoples R China
[4] Chalmers Univ Technol, Dept Elect Engn, S-41258 Gothenburg, Sweden
[5] Wuhan Inst Artificial Intelligence & New Energy Au, Sch Mech & Elect Engn, Wuhan 430070, Peoples R China
[6] State Grid Zhejiang Elect Power Res Inst, Hangzhou 310014, Peoples R China
关键词
Proton exchange membrane fuel cell; Hybrid intake system; Fuzzy PID; Integrated hydrogen energy utilization system; Energy efficiency; PERFORMANCE; RECIRCULATION; TEMPERATURE; PUMP;
D O I
10.1016/j.energy.2024.132853
中图分类号
O414.1 [热力学];
学科分类号
摘要
The typical Integrated Hydrogen Energy Utilization System (IHEUS) does not recycle oxygen. For maximizing the system's efficiency, this study proposes a method for recycling byproduct oxygen in a Fuel Cell (FC) hybrid cathode intake structure and its control. By introducing the pure oxygen produced as a byproduct of hydrogen production into the FC, a hybrid cathode intake structure is formed with the air branch. To control this structure, models of the oxygen and air branch, and the FC stack are established. Subsequently, using BiLSTM network to learn historical data and extract relevant features, the output power demand of the FC system is predicted. Based on the prediction results, the required gas flow is calculated, and a fuzzy PID control strategy is employed to adjust the opening of the solenoid valve to change the gas flow to meet the demand. Finally, comparative studies show that our FC system, operating in a pure oxygen state, outperforms conventional air intake design: heat production increases by 13 %, electric efficiency improves by 20 %, and pure water savings reach 65.57 %. The air compressor witnesses a substantial 37.63 % reduction in power consumption, contributing to an overall energy efficiency increase of 8.92 % for the IHEUS.
引用
收藏
页数:15
相关论文
共 44 条
[1]   Optimized energy management and control strategy of photovoltaic/PEM fuel cell/batteries/supercapacitors DC microgrid system [J].
Alharbi, Abdullah G. ;
Olabi, A. G. ;
Rezk, Hegazy ;
Fathy, Ahmed ;
Abdelkareem, Mohammad Ali .
ENERGY, 2024, 290
[2]   PEM fuel cell performance improvement through numerical optimization of the parameters of the porous layers [J].
Carcadea, Elena ;
Varlam, Mihai ;
Ismail, Mohammed ;
Ingham, Derek Binns ;
Marinoiu, Adriana ;
Raceanu, Mircea ;
Jianu, Catalin ;
Patularu, Laurentiu ;
Ion-Ebrasu, Daniela .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2020, 45 (14) :7968-7980
[3]   Proton exchange membrane fuel cells using new cathode field designs of multi-inlet shunt intake design [J].
Chen, Daifen ;
Zou, Yuting ;
Shi, Weidong ;
Serbin, Serhiy ;
You, Huailiang .
INTERNATIONAL JOURNAL OF ENERGY RESEARCH, 2021, 45 (07) :9948-9960
[4]   Optimizing the economic viability of proton exchange membrane fuel cells operated with oxygen-enriched cathode air for residential hydrogen energy storage systems [J].
Chen, Fengxiang ;
Ye, Huan ;
Pei, Yaowang .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2024, 65 :236-251
[5]   Robust polymer electrolyte membrane fuel cell temperature tracking control based on cascade internal model control [J].
Chen, Fengxiang ;
Jiao, Jieran ;
Hou, Zhongjun ;
Cheng, Wei ;
Cai, Jun ;
Xia, Zenggang ;
Chen, Jie .
JOURNAL OF POWER SOURCES, 2020, 479
[6]   Air flow and pressure optimization for air supply in proton exchange membrane fuel cell system [J].
Chen, Huicui ;
Liu, Zhao ;
Ye, Xichen ;
Yi, Liu ;
Xu, Sichen ;
Zhang, Tong .
ENERGY, 2022, 238
[7]   Optima Oxygen Excess Ratio Control for PEM Fuel Cells [J].
Chen, Jian ;
Liu, Zhiyang ;
Wang, Fan ;
Ouyang, Quan ;
Su, Hongye .
IEEE TRANSACTIONS ON CONTROL SYSTEMS TECHNOLOGY, 2018, 26 (05) :1711-1721
[8]   Technical challenges and enhancement strategies for transitioning PEMFCs from H2-air to H2-O2 [J].
Cheng, Ming ;
Liu, Mengjie ;
Feng, Yong ;
Guo, Yangge ;
Xu, Huahui ;
Luo, Liuxuan ;
Yin, Jiewei ;
Yan, Xiaohui ;
Shen, Shuiyun ;
Zhang, Junliang .
ENERGY CONVERSION AND MANAGEMENT, 2024, 311
[9]   Experimental and modelling studies of low temperature PEMFC performance [J].
Chugh, Sachin ;
Chaudhari, Chinmay ;
Sonkar, Kapil ;
Sharma, Alok ;
Kapur, G. S. ;
Ramakumar, S. S., V .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2020, 45 (15) :8866-8874
[10]   PEM fuel cell system control: A review [J].
Daud, W. R. W. ;
Rosli, R. E. ;
Majlan, E. H. ;
Hamid, S. A. A. ;
Mohamed, R. ;
Husaini, T. .
RENEWABLE ENERGY, 2017, 113 :620-638