Properties and microstructure of graphitised ZrC/C or SiC/C composites

Carbon

Volumn 43, Issue 5, 2005, Pages 1021-1025

  Qiu, Haipeng ^a   Han, Lijun ^a   Liu, Lang ^b  

^a Beijing Aeronautical Manufacturing Technology Research Institute   (China)

^b INSTITUTE OF COAL CHEMISTRY   (China)

Author keywords

Doping; Graphite; Thermal conductivity

Indexed keywords

COMPOSITE MATERIALS; COMPOSITION; DOPING (ADDITIVES); HOT PRESSING; MICROSTRUCTURE; SILICON CARBIDE; THERMAL CONDUCTIVITY;

COMPOSITE PROCESSING; DOPANTS; ROOM TEMPERATURE; THERMAL SHOCK;

GRAPHITE;

EID: 14044252849     PISSN: 00086223     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.carbon.2004.11.043     Document Type: Article

References (18)

1. E. Fitzer The future of carbon-carbon composites Carbon 25 2 1987 163 190
2. S. Blazewicz, J. Blocki, J. Chlopek, J. Godlewski, J. Mickalowski, and K. Pakonski Thin C/C composite shells for high energy physics: manufacture and properties Carbon 34 11 1996 1393 1399
3. J.P. Qian, X. Liu, and P.Y. Li Thermal shock of carbon based materials and coatings under high heat flux J Nucl Mater 191-194 1992 340 345
4. Y.M. Chen, and J.M. Ting Ultra high thermal conductivity polymer composites Carbon 40 3 2002 359 362
5. B.N. Enweani, J.W. Davis, and A.A. Haasz Thermal diffusivity/conductivity of doped graphites J Nucl Mater 224 3 1995 245 253
6. J.P. Bonal, and C.H. Wu Neutron irradiation effects on the thermal conductivity and dimensional stability of carbon fiber composites at divertor conditions J Nucl Mater 228 2 1996 155 161
7. C. Garcia-Rosales, J. Roth, and R. Behrisch Sputtering and surface composition modifications of Ti doped graphite RG-Ti at temperatures up to 2000 K J Nucl Mater 212-215 1994 1211 1217
8. M. Eto, T. Ishii, T. Inagaki, and Y. Okamoto Infrared radiation properties of the carbon-carbon composite and their application to non destructive detection of its defects Carbon 40 3 2002 285 294
9. S. Vaidyaraman, W.J. Lackey, P.K. Agrawal, and G.B. Freeman Forced flow-thermal gradient chemical vapor infiltration (FCVI) for fabrication of C/C Carbon 33 9 1995 1211 1215
10. P.M. Adamas, H.A. Katzman, G.S. Rellick, and G.W. Stupian Characterization of high thermal conductivity carbon fibers and a self-reinforced graphite panel Carbon 36 3 1998 233 245
11. Q.G. Guo, J.G. Li, G.T. Zhai, L. Liu, J.R. Song, and L.F. Zhang The primary results for the mixed carbon materials used for flux steady-state Tokamak operation in China J Nucl Mater 290-293 2001 191 195
12. T.A. Burtseva, O.K. Chugunov, E.F. Dovguchits, V.L. Komarov, I.V. Mazul, and A.A. Mitrofansky Resistance of carbon-based materials for ITER divertor under different radiation fluxes J Nucl Mater 191-194 1992 309 314
13. T. Burstseva, V. Barabash, I. Mazul, C.G. Rosales, S. Deschka, and R. Behrisch Performance of the Ti doped graphite RG-Ti-91 at the divertor of the Tokamak ASDEX Upgrade J Nucl Mater 221-243 1997 716 721
14. H.P. Qiu, Y.Z. Song, L. Liu, G.T. Zhai, and J.L. Shi Thermal conductivity and microstructure of Ti-doped graphite Carbon 41 5 2003 973 978
15. H. Takahashi, H. Kuroda, and H. Akamatu Correlation between stacking order and crystallite dimensions in carbons Carbon 2 1964 432 433
16. B.T. Kelly Physics of graphite 1981 Jersey London
17. G. Chen Encyclopedia of chemical technology vol. 15 1989 Chemical Technology Publishing Beijing p. 79
18. P.L. Walker Chemistry and physics of carbon vol. 7 1971 Marcel Dekker New York p. 83