THERMAL STABILITY OF Ti-24Al-11Nb-3V-1Mo ALLOY

Acta Metall Sin

1993, Vol. 29

Issue (10): 23-27 DOI:

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THERMAL STABILITY OF Ti-24Al-11Nb-3V-1Mo ALLOY

ZHANG Bing;WAN Xiaojing;WANG Jianguo;ZHANG Ying Shanghai University of Technology

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ZHANG Bing;WAN Xiaojing;WANG Jianguo;ZHANG Ying Shanghai University of Technology. THERMAL STABILITY OF Ti-24Al-11Nb-3V-1Mo ALLOY. Acta Metall Sin, 1993, 29(10): 23-27.

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Abstract The thermal stability of Ti-24Al-11Nb-3V-1Mo alloy was studied after ex-posure at 650--750℃ for different time. The bending strength σ_(bb) and flexibility f decreasedwith increasing exposure temperature and exposure time in air, while only a little change ofσbb and f was noticed when samples exposed under vacuum in the same condition. This is dueto the formation of a brittle oxygen-enriched layer adjacent to the surface of material, inaddtion to the formation of TiO_2 on the surface after exposure in air. Thermal exposure of al-loy results in the change of microstructure, i.e., forming the "O" phase, which is not the ma-jor factor causing the degradation of mechnical properties.

Key words: Ti_3Al-based alloy thermal stability oxygen-enriched layer

Received: 18 October 1993

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1 万晓景.钛科学与工程,第六届全国钛及钛合金学术交流会文集,原子能出版社,1987;V2:3
2 金属研究所,抚顺钢厂.金属学报,1976;12:172
3 Rowe R G. In: Wang S H, Liu C T, Pope P O, Stiegler J U eds. High Temperature Aluminide and Intermetallics, The Minerals and Materials Society, 1990
4 Kim Y W, Proes F H. In: Wang S H, Liu C T, Pope D P, Stiegler J O eds.,High Temperature Aluminide and Intermetallics, The Minerals and Materials Society, 1990
5 Wang Bin, Jia tiancong, Zou Dunxu, Ma Huiping, Zhong Zengyon. Mater Sci Eng, 1992; A153:422
6 葛志明.钛的二元相图,北京:国防工业出版社,1977
7 Angela Szaruga. Scr Met Mater, 1992; 26: 787
8 Rahmel A, Specer P J. Oxid Met, 1991; 35: 53
9 Luthra K L. Oxid Mat, 1991; 36: 475
10 万晓景,曹名洲,辛公春.金属学报,1979;15:563

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