Russian Technologies and Nanostructural Materials in High Specific Power Systems Based on Hydrogen–Air Fuel Cells with an Open Cathode

被引：0
|
作者：
S. I. Nefedkin
V. E. Guterman
A. A. Alekseenko
S. V. Belenov
A. V. Ivanenko
M. A. Klimova
V. I. Pavlov
S. V. Panov
K. O. Paperzh
S. V. Shubenkov
机构：
[1] BMPower company (participant of the Skolkovo project),
[2] Prometheus R&D LLC (participant of the Skolkovo project),undefined
来源：
Nanotechnologies in Russia | 2020年 / 15卷
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页码：370 / 378
页数：8
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    Shkolnikov, Eugene
    Vlaskin, Mikhail
    Iljukhin, Alexey
    Zhuk, Andrey
    Sheindlin, Alexander
    [J]. JOURNAL OF POWER SOURCES, 2008, 185 (02) : 967 - 972
  • [22] Direct power to hydrogen to power based on solid oxide cells with a high-performance Sr-Ba free air electrode
    Zhang, Panpan
    Chang, Jieshan
    Wu, Yujie
    Jing, Junmeng
    Wang, Haoran
    Zheng, Ziwei
    Chen, Liyan
    Li, Jiaheng
    Yang, Zhibin
    [J]. FUEL, 2024, 363
  • [23] Innovative Energy Storage for Off-Grid RES-Based Power Systems: Integration of Flywheels with Hydrogen Utilization in Fuel Cells
    Prodromidis, G. N.
    Coutelieris, F. A.
    [J]. JOURNAL OF ENERGY ENGINEERING, 2014, 140 (04)
  • [24] Barium- and Strontium-Containing Anode Materials toward Ceria-Based Solid Oxide Fuel Cells with High Open Circuit Voltages
    Gong, Zheng
    Sun, Wenping
    Jin, Zongzi
    Miao, Lina
    Liu, Wei
    [J]. ACS APPLIED ENERGY MATERIALS, 2018, 1 (07): : 3521 - 3528
  • [25] SSH2S: Hydrogen storage in complex hydrides for an auxiliary power unit based on high temperature proton exchange membrane fuel cells
    Baricco, Marcello
    Bang, Mads
    Fichtner, Maximilian
    Hauback, Bjorn
    Linder, Marc
    Luetto, Carlo
    Moretto, Pietro
    Sgroi, Mauro
    [J]. JOURNAL OF POWER SOURCES, 2017, 342 : 853 - 860
  • [26] Optimization of Ionomer for High-Performance Self-Humidifying Air-Breathing Proton-Exchange Membrane Fuel Cells in Portable Device Power Systems
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    Choi, Hyukjae
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    Choi, Hosung
    Ahn, Chi-Yeong
    Kim, Yunho
    La, Ilchai
    Kim, Ok-Hee
    Cho, Yong-Hun
    Sung, Yung-Eun
    [J]. ENERGY TECHNOLOGY, 2024,
  • [27] Comments on "Experimental study of the pressure drop in the cathode side of air-forced open-cathode proton exchange membrane fuel cells" by Barreras et al., Int. J. Hydrogen Energy, 36 (13) 2011, 7612-7620
    Brkic, Dejan
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    Wu, Zijie
    Ni, Zhengyang
    Yu, Huitao
    Li, Feng
    Song, Hao
    Feng, Yiyu
    Feng, Wei
    [J]. CARBON, 2023, 212
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    Sanz i Lopez, Victor
    Costa-Castello, Ramon
    Batlle, Carles
    [J]. ENERGIES, 2022, 15 (17)
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    Chen, Zhengpeng
    Zhang, Wenjing
    Sun, Mengyuan
    Jin, Fangjun
    Liu, Hongmin
    Ou, Xuemei
    Zheng, Kun
    Ling, Yihan
    [J]. Journal of Power Sources, 2025, 629
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