ACTIVATING TiFe ALLOY FOR HYDROGEN SORPTION BY SURFACE OXIDATION TREATMENT

Chin J Mater Res

1990, Vol. 4

Issue (6): 484-487 DOI:

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ACTIVATING TiFe ALLOY FOR HYDROGEN SORPTION BY SURFACE OXIDATION TREATMENT

ZHU Haiyan;CHEN Changpin;WU Jing;WANG Qidong(Zhejiang University)

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ZHU Haiyan;CHEN Changpin;WU Jing;WANG Qidong(Zhejiang University). ACTIVATING TiFe ALLOY FOR HYDROGEN SORPTION BY SURFACE OXIDATION TREATMENT. Chin J Mater Res, 1990, 4(6): 484-487.

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Abstract It is difficult to activate TiFe alloy for hydrogen sorption.In this report amicro-electric-arc oxidation treatment was developed and it was found that TiFe alloycould be activated at the room temperature by such a surface oxidation treatment.It is be-lie

Key words: titanium-iron alloy hydrogen storage materials activation surface treatment oxidation

Received: 25 December 1990

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1 Reilly J J,Wiswall R H Jr.Inor Chem,1974;13:218
2 Suzuki H,Osumi Y,Kato A et al.J Less-Comon Met,1981;80:179
3 Jonson J R,Reilly J J.Proc of the DOE Chemical/Hydrogen Energy Systems,Contractor Rewiew,1979:218
4 Camo T,Moriwaki Y,Yanagihara Net al.National Tech Rept(Japan),1983;29:78
5 Bronca V,Bergman P,Ghaemmaghami V et al.J Less-Common Met,1985;108:313
6 大角泰章.别册化学工业,1986;30(11) :167
7 Williams F L.In:Johson W C ed.Interfacial Segregation,A C S,Ohio,1977:218
8 Miedema A R.Z Metallkude,1977;69:287
9 Schlapbach L,Seiler A,Stuki F,Mater Res Bull,1978;13:679
10 Reilly J J,Reidinger F.J Less-Comm Met,1982;85:145
11 Schober T.J Less-Common Met,1983;89:63

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