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Thermal Analysis of High-Pressure Metal Hydride Tank for Automotive Application

Published online by Cambridge University Press:  01 February 2011

Keiji Toh ,
Hidehito Kubo ,
Yoshihiro Isogai ,
Daigoro Mori ,
Katsuhiko Hirose  and
Nobuo Kobayashi
Keiji Toh
Affiliation:
keiji.to@mail.toyota-shokki.co.jp, TOYOTA INDUSTRIES CORPORATION, Research & Development Dept., 8, Chaya, Kyowa-cho, Obu-shi, N/A, 474-8612, Japan
Hidehito Kubo
Affiliation:
hidehito.kubo@mail.toyota-shokki.co.jp, TOYOTA INDUSTRIES CORPORATION, Research & Development Dept., 8, Chaya, Kyowa-cho, Obu-shi, N/A, 474-8601, Japan
Yoshihiro Isogai
Affiliation:
yoshihiro.isogai@mail.toyota-shokki.co.jp, TOYOTA INDUSTRIES CORPORATION, Research & Development Dept., 8, Chaya, Kyowa-cho, Obu-shi, N/A, 474-8601, Japan
Daigoro Mori
Affiliation:
mori@daigoro.tec.toyota.co.jp, TOYOTA MOTOR CORPORATION, Fuel Cell System Development Div., 1200, Mishuku, Susono-shi, N/A, 410-1193, Japan
Katsuhiko Hirose
Affiliation:
hirose@katsuhiko.tec.toyota.co.jp, TOYOTA MOTOR CORPORATION, Fuel Cell System Development Div., 1200, Mishuku, Susono-shi, N/A, 410-1193, Japan
Nobuo Kobayashi
Affiliation:
nobo@kobayasi.tec.toyota.co.jp, TOYOTA MOTOR CORPORATION, Fuel Cell System Engeering Div., 1, Toyota-cho, Toyota-shi, N/A, 471-8572, Japan
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Abstract

A new type of hydrogen storage tank has been developed for fuel cell vehicles FCHV. The tank design is based on the 35MPa high-pressure cylinder vessel and the heat exchanger module including hydrogen absorbing alloy with high dissociation pressure is integrated in it. To hydrogen absorbing alloy, for example, Ti-Cr-Mn alloy with AB2 laves phase is applied. Its effective hydrogen weight capacity is 1.9 wt% and reaction enthalpy is −2 kJ/molH2. To optimize the heat exchanger, thermal analyzing method was developed to predict the amount of hydrogen absorption or desorption. The simulation consists of heat and mass balance. Heat balance is made by the hydrogen absorbing alloy, heat exchanger and coolant each other. Also reaction heat of the hydrogen absorbing alloy and compressed heat are considered. The reaction heat is calculated from the equation of reaction rate that is derived experimentally.

Furthermore, an additional simulation to predict the charging performance of on-board high-pressure MH tank system by the radiator cooling will be reported. With this simulation, it will become possible to make parameter studies to investigate how the operating conditions influence the performance of tank system.

Keywords

simulationenergy-storagekinetics
Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 927: Symposium EE – Hydrogen Storage Materials , 2006 , 0927-EE01-07
Copyright
Copyright © Materials Research Society 2006

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References

1. Schlapbach, L. and Guest, Editor, MRS Bulletin, 27, 675 (2002).Google Scholar
2. Schlapbach, L. and Züttel, A., Nature, 414, 353 (2001).Google Scholar
3. Bogdanović, B. and Sandrock, G., MRS Bulletin, 27, 712 (2002).Google Scholar
4. Akiba, E. and Iba, H., Intermetallics, 6, 461 (1998).Google Scholar
5. Akiba, E. and Okada, M., MRS Bulletin, 27, 699 (2002).Google Scholar
6. Mori, D., Kobayashi, N., Shinozawa, T., Mastunaga, T., Kubo, H., Toh, K. and Tsuzuki, M., Collected Abstracts of the 2004 Autumn Meeting of the Japan Inst. Materials, p. 157.Google Scholar
7. Mori, D., Kobayashi, N., Shinozawa, T., Mastunaga, T., Kubo, H., Toh, K. and Tsuzuki, M., J. Japan Inst. Materials, 69, 308 (2005).Google Scholar
8. Mori, D., Kobayashi, N., Matsunaga, T., Toh, K. and Kojima, Y., Materia Japan, 44, 257 (2005).Google Scholar
9. Fisher, P. W. and Watson, J. S., Int., J., Hydrogen Energy, vol. 8, No.2, 109–119 (1983).Google Scholar
10. Hahne, E. and Kallweit, J., Int. J. Hydrogen Energy, Vol.23, No.2, 107–114 (1998).Google Scholar
11. Fujitani, S., Nakamura, H., Furukawa, A., Nasako, K., Sato, K., Imoto, T., Saito, T. and I, Yonezu, Z. Phys. Chem., Bd., 179, 27–35 (1993).Google Scholar