Abstract
Thermal transport properties of a solid material are generally controlled by two mechanisms: (i) electron charge cloud drift and (ii) lattice vibrations, known as phonons. In the latter case, thermal transport properties such as thermal conductivity or thermal diffusivity are directly proportional to the mean free path of phonons [1]. In a perfect crystal, phonon scattering takes place predominantly by four mechanisms; the crystal boundaries, the natural isotopic composition, the inharmonic interaction with other phonons, and the conduction of electrons [2].
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References
Bokros JC (1965) Physics & Chemistry of Carbon. Vol 5, p 1
Gopal ESR (1966) Specific heat at low temperature. Plenum Press NY
Kelly BT (1969) Physics & Chemistry of Carbon. Vol 5, p 119
Issi JP, Nysten B, Piraux L (1987) Journal of Physics. Vol 3, p 257
Klett JW (1994) Heat transfer in C/C Composites materials. PhD Thesis, Clemson University
Pierson HO (1993) Handbook of Carbon, Graphite, Diamond and Fullerenes. Noyes Publication
Parker WJ, Jenkins RJ, Butler CP, Abbott GL (1961) J App Phys 32, p 1679
Whittaker AJ, Taylor R (1990) Proc Roy Soc London A 430, p 199
Harris JP, Yates B, Batchelor J, Carrington PJ (1982) J Mat Sci, Vol 17, p 2925
Tye RP, Desjarlais AU (1981) 17th Thermal conductivity conference, Washington
Taylor RE, Jortner J, Groot H (1985) Carbon. Vol 23, p 215
Brennen J, Bentsen LD, Hesselmann DPH (1985) J Mat Sci, Vol 20, p 2339
Whittaker AJ, Taylor R (1981) Proc Roy Soc London 430: 167
Whittaker AJ, Taylor R (1981) Proc Roy Soc London 430: 183
Fitzer E, Fritz W, Geigl KH, Vohmann W (1976) High Temperature - High Pressure Vol 8, p 187
Kimura S, Yasuda E, Tanade Y (1983) Microstructure and related preperties in C/C Composites. Proc Int Symp on Ceramic Composites for Engines. Japan, p 783
Tanamura T, Shioyama H, Ikeda S, Adachi M, Fujii R (1991) Tanso No 149, p 220
Zimmer J (1991) Extended abstracts of the 20th Biennial Carbon Conference, p 390
McAllister LE (1983) Multidirection C/C composites. In: Kelly A, Mileiko ST (eds) Fabrication of Composites. PNH Pub
Pierson HO, Northrop DA (1975) J Comp Mat. Vol 9, p 118
Montaudon M, Gery P, Christin F (1993) 21st Bien Carbon Conf, p 384
Burchell TD, Oku T. Materials Property Data for fusion reactor plasma facing carbon/carbon composites. Preprints
Yamamosto M et al. (1993) Report Evaluation tests on first wall divertor plate material
Baker CF (1993) Proc 21st Biennial Carbon Conf, p 46
Klett JW, Edie DD (1995) Carbon. Vol 33, p 1485
Ting J, Lake ML (1995) Carbon. Vol 33, p 663
Bowers DA, Davis JW, Dinwiddie RB (1994) J Nuclear Materials. 212 p, 1163.
Engle GB, Tallon JA, Graves RA (1990) Proc 14 th Conf. on Metal Matrix, Carbon & Ceramic matrix composites, Cocsa Beach Fl NASA Conf. Pub 3097, p 319
Meyer RA, Gyatvay SR, Chase AB (1983) 16th Bien carbon Conf, p 505
Sato S, Kurumada A, Kawamata K, Ishide R (1990) Int Carbon Symp Tsukuba, p 214
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© 1998 Springer-Verlag Berlin Heidelberg
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Fitzer, E., Manocha, L.M. (1998). Thermal Properties of Carbon/Carbon Composites. In: Carbon Reinforcements and Carbon/Carbon Composites. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-58745-0_7
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DOI: https://doi.org/10.1007/978-3-642-58745-0_7
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