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Hydrogen generation from hydrolysis of MNH2BH3 and NH3BH3/MH (M=Li, Na) for fuel cells based unmanned submarine vehicles application

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  • Weng, Baicheng
  • Wu, Zhu
  • Li, Zhilin
  • Yang, Hui

Abstract

Hydrogen release from hydrolysis of LiNH2BH3, NaNH2BH3, LiH-NH3BH3 and NaH-NH3BH3 was investigated respectively in this paper. Their applications on man-free submarine vehicles were discussed in this paper. It is shown experimentally that LiNH2BH3 and NaNH2BH3 hydrolysis can release 3 equivalents of hydrogen at room temperature. Hydrolysis of LiNH2BH3 or NaNH2BH3 exhibits greatly improved kinetics in comparison with neat NH3BH3 hydrolysis. The mechanism of LiNH2BH3 and NaNH2BH3 hydrolysis is the combination of H+ and OH− ions of water with the polar ions of LiNH2BH3 and NaNH2BH3. The process of LiH-NH3BH3 and NaH-NH3BH3 hydrolysis involves the thermohydrolysis of NH3BH3. Our results present a novel noncatalytic method for hydrogen release from NH3BH3 by co-hydrolyzing it with other high exothermic hydrides, and also show a novel strategy to improve hydrogen release kinetics of LiNH2BH3 and NaNH2BH3. The hydrolyzing materials presented in this context are promising for use on fuel cells’ based vehicle.

Suggested Citation

  • Weng, Baicheng & Wu, Zhu & Li, Zhilin & Yang, Hui, 2012. "Hydrogen generation from hydrolysis of MNH2BH3 and NH3BH3/MH (M=Li, Na) for fuel cells based unmanned submarine vehicles application," Energy, Elsevier, vol. 38(1), pages 205-211.
    • Handle: RePEc:eee:energy:v:38:y:2012:i:1:p:205-211
    DOI: 10.1016/j.energy.2011.12.012
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    References listed on IDEAS

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    Cited by:

    1. Kim, Taegyu, 2014. "NaBH4 (sodium borohydride) hydrogen generator with a volume-exchange fuel tank for small unmanned aerial vehicles powered by a PEM (proton exchange membrane) fuel cell," Energy, Elsevier, vol. 69(C), pages 721-727.
    2. Pedicini, R. & Schiavo, B. & Rispoli, P. & Saccà, A. & Carbone, A. & Gatto, I. & Passalacqua, E., 2014. "Progress in polymeric material for hydrogen storage application in middle conditions," Energy, Elsevier, vol. 64(C), pages 607-614.
    3. Kou, Huaqin & Luo, Wenhua & Huang, Zhiyong & Sang, Ge & Meng, Daqiao & Zhang, Guanghui & Chen, Changan & Luo, Deli & Hu, Changwen, 2015. "Fabrication and experimental validation of a full-scale depleted uranium bed with thin double-layered annulus configuration for hydrogen isotopes recovery and delivery," Energy, Elsevier, vol. 90(P1), pages 588-594.
    4. Loghmani, Mohammad Hassan & Shojaei, Abdollah Fallah, 2014. "Hydrogen production through hydrolysis of sodium borohydride: Oleic acid stabilized Co–La–Zr–B nanoparticle as a novel catalyst," Energy, Elsevier, vol. 68(C), pages 152-159.
    5. Cai, Haokun & Liu, Liping & Chen, Qiang & Lu, Ping & Dong, Jian, 2016. "Ni-polymer nanogel hybrid particles: A new strategy for hydrogen production from the hydrolysis of dimethylamine-borane and sodium borohydride," Energy, Elsevier, vol. 99(C), pages 129-135.
    6. Gorlova, A.M. & Kayl, N.L. & Komova, O.V. & Netskina, O.V. & Ozerova, A.M. & Odegova, G.V. & Bulavchenko, O.A. & Ishchenko, A.V. & Simagina, V.I., 2018. "Fast hydrogen generation from solid NH3BH3 under moderate heating and supplying a limited quantity of CoCl2 or NiCl2 solution," Renewable Energy, Elsevier, vol. 121(C), pages 722-729.

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