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Numerical and experimental investigations on internal humidifying designs for proton exchange membrane fuel cell stack

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  • Yin, Cong
  • Yang, Haiyu
  • Liu, Yu
  • Wen, Xuhui
  • Xie, Guangyou
  • Wang, Renkang
  • Tang, Hao

Abstract

For an automotive proton exchange membrane fuel cell engine, the efficient water content management is critical to its overall efficiency and lifetime. The fuel cell stack designed with internal humidifying effect is a promising solution for enhanced performance and compact system integration. In this work, a novel internal humidifying fuel cell stack design is proposed which utilizes the water and heat transfer through membrane in the triangular gas feed areas. Validated by the experimental test, a coupled three-dimensional model is developed to compare the fuel cell performance with three different feed area functions. The active feed area design performs the worst with the lowest reaction uniformity, while the humidifying feed area design presents the best performance with greatly improved water content distributions. The internal humidifying stack design is suitable for operations under dry reactants inflow conditions with more performance improvement and more evenly distributed reaction, which is beneficial for the compact fuel cell system integration without external humidifiers. To further improve the internal humidification effects of the stack, the asymmetric inlet/outlet feed areas with specific flow channels will be studied in future work.

Suggested Citation

  • Yin, Cong & Yang, Haiyu & Liu, Yu & Wen, Xuhui & Xie, Guangyou & Wang, Renkang & Tang, Hao, 2023. "Numerical and experimental investigations on internal humidifying designs for proton exchange membrane fuel cell stack," Applied Energy, Elsevier, vol. 348(C).
    • Handle: RePEc:eee:appene:v:348:y:2023:i:c:s0306261923009078
    DOI: 10.1016/j.apenergy.2023.121543
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    References listed on IDEAS

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    1. Yin, Cong & Gao, Yan & Li, Ting & Xie, Guangyou & Li, Kai & Tang, Hao, 2020. "Study of internal multi-parameter distributions of proton exchange membrane fuel cell with segmented cell device and coupled three-dimensional model," Renewable Energy, Elsevier, vol. 147(P1), pages 650-662.
    2. Wang, Yun & Chen, Ken S. & Mishler, Jeffrey & Cho, Sung Chan & Adroher, Xavier Cordobes, 2011. "A review of polymer electrolyte membrane fuel cells: Technology, applications, and needs on fundamental research," Applied Energy, Elsevier, vol. 88(4), pages 981-1007, April.
    3. Chang, Yafei & Qin, Yanzhou & Yin, Yan & Zhang, Junfeng & Li, Xianguo, 2018. "Humidification strategy for polymer electrolyte membrane fuel cells – A review," Applied Energy, Elsevier, vol. 230(C), pages 643-662.
    4. Wilberforce, Tabbi & El Hassan, Zaki & Ogungbemi, Emmanuel & Ijaodola, O. & Khatib, F.N. & Durrant, A. & Thompson, J. & Baroutaji, A. & Olabi, A.G., 2019. "A comprehensive study of the effect of bipolar plate (BP) geometry design on the performance of proton exchange membrane (PEM) fuel cells," Renewable and Sustainable Energy Reviews, Elsevier, vol. 111(C), pages 236-260.
    5. Yin, Cong & Song, Yating & Liu, Meiru & Gao, Yan & Li, Kai & Qiao, Zemin & Tang, Hao, 2022. "Investigation of proton exchange membrane fuel cell stack with inversely phased wavy flow field design," Applied Energy, Elsevier, vol. 305(C).
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    1. Mehrazi, Shirin & Homayouni, Taymaz & Kakati, Nitul & Sarker, Mrittunjoy & Rolfe, Philip & Chuang, Po-Ya Abel, 2024. "A Rheo-Impedance investigation on the interparticle interactions in the catalyst ink and its impact on electrode network formation in a proton exchange membrane fuel cell," Applied Energy, Elsevier, vol. 359(C).

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