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A novel ultra-high temperature oxidation technique in flowing gas with controlled oxygen partial pressure
Alternative TitleA novel ultra-high temperature oxidation technique in flowing gas with controlled oxygen partial pressure
Xu Jingjun1; Li Meishuan1; Fang Xueliang2; Zhang Zhongwei2; Xu Zhenghui2; Wang Junshan2
2010
Source PublicationFrontiers of Materials Science in China
ISSN1673-7377
Volume4Issue:3Pages:266-270
AbstractFor the purpose of investigating ultra-high temperature oxidation, a novel induction heating facility has been established. The oxidation kinetics of several typical ultra-high temperature materials (UHTMs), including two graphite-based composites (C/C and ZrB2/C) and two ternary Zr-Al-C ceramics (Zr_2Al_3C_4 and Zr_2Al (Si)_4C_5), were tested by utilizing this facility. It has been identified that the tested cylindrical samples with dimensions of Φ 20 mm x 20 mm can be oxidized uniformly. The maximum temperature of 2450℃ can be achieved on graphite-based composites, and the oxygen partial pressure can be controlled in the range of 10~2-10~5 Pa. This novel technique exhibits many advantages, such as an extremely high heating rate of about 20℃/s, easy controlling of temperature and gas pressure, low energy consumption, low cost, and high efficiency. Therefore, it provides a potential way for profoundly investigating the ultra-high temperature oxidation behaviors of UHTMs
Other AbstractFor the purpose of investigating ultra-high temperature oxidation, a novel induction heating facility has been established. The oxidation kinetics of several typical ultra-high temperature materials (UHTMs), including two graphite-based composites (C/C and ZrB2/C) and two ternary Zr-Al-C ceramics (Zr_2Al_3C_4 and Zr_2Al (Si)_4C_5), were tested by utilizing this facility. It has been identified that the tested cylindrical samples with dimensions of Φ 20 mm x 20 mm can be oxidized uniformly. The maximum temperature of 2450℃ can be achieved on graphite-based composites, and the oxygen partial pressure can be controlled in the range of 10~2-10~5 Pa. This novel technique exhibits many advantages, such as an extremely high heating rate of about 20℃/s, easy controlling of temperature and gas pressure, low energy consumption, low cost, and high efficiency. Therefore, it provides a potential way for profoundly investigating the ultra-high temperature oxidation behaviors of UHTMs
Keywordinduction heating ultra-high temperature oxidation oxidation kinetics
Indexed ByCSCD
Language英语
CSCD IDCSCD:3990230
Citation statistics
Document Type期刊论文
Identifierhttp://ir.imr.ac.cn/handle/321006/147296
Collection中国科学院金属研究所
Affiliation1.中国科学院金属研究所
2.Aerospace Research Institute of Materials and Processing Technology
Recommended Citation
GB/T 7714
Xu Jingjun,Li Meishuan,Fang Xueliang,et al. A novel ultra-high temperature oxidation technique in flowing gas with controlled oxygen partial pressure[J]. Frontiers of Materials Science in China,2010,4(3):266-270.
APA Xu Jingjun,Li Meishuan,Fang Xueliang,Zhang Zhongwei,Xu Zhenghui,&Wang Junshan.(2010).A novel ultra-high temperature oxidation technique in flowing gas with controlled oxygen partial pressure.Frontiers of Materials Science in China,4(3),266-270.
MLA Xu Jingjun,et al."A novel ultra-high temperature oxidation technique in flowing gas with controlled oxygen partial pressure".Frontiers of Materials Science in China 4.3(2010):266-270.
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