Abstract
With its central position in the first full row of the Mendeleïev classification (1s2, 22, 2p2), the elemmt carbon exhibits unique bonding possibilities. Cabon can bond to numerous other elements and fonn different bonding with itself (catenation, illustrated in Fig. 1). Bonding in carbon materials controls tiiree major regimes:
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Solids, with σ-bonds only, fonn 3D-structures which are rigid and isottopic. The allofropic form is diamond and is logically cubic. It has tiie highest atomic density of my solid. Bulk properties are in line: diamond is the hardest material (least deformable), and has tiie highest thermal conductivity as well as tiie highest melting point. It is m insulator with a reported band gap as high as 5.5 eV. In addition, graphite has the shortest bond lengths within the plmes of the graphite.
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In graphite, the association of σ- and π-bonds fomis in the graphitic majs of atoms results in layered structures with a high degree of misotropy. Graphene structures, that is the smgle graphite plme, is tiie stiffest material in nature, md has the highest elastic modulus. Graphite in-plme exhibits even a higher themal conductivity than diamond. In graphite, the bmd gap is — 0.04 eV. Graphite is a semi-metal Electrical conductivity of graphite (in plane) is approximately that of iron at room temperature.
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In fullerenes, because of the bending of te graphitic bond a re-hybridisation occurs: tese are te sp2+ε foms, intemediate between sp2 md sp3 [1].
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References
Ebbesen T.W. and Takada T., Carbon, 33(7), pp. 973–978 (1995).
IUPAC Subeommittee on Terminology and Characteriirtion of Carton, ICCTC, Fiteer E., Röchling K.H., Boehm H.P. and Marsh H., Recommended Terminology for the Description of Carbon as a Solid, Pure and Applied Chemistry, 67(3), pp. 473–506 (1995).
Bourrat X., Structure of Carbon and Cabon Artefecte, ch, 1 in Sciences of Carbon Materials, edited by H, Marsh and F. Rodriguez-Reinoso, Universidad de Alicante, SP (2000).
Oberlin A., High-Resolution TEM Studies of Carbonization and graphitization, Chemistry and Physics of Carbon, Ed. P.A. Thrower, 22, pp. 1–143 (1989).
Guinier A., in ‘Théorie et Techniques de la Radioristallographie’, Dunod, Paris (1956).
Bounmt X., Oberlin A. and Bachelard R., Carbon, 31(2), pp. 287–302 (1993).
Bacon G.E., Acta, Cryst., 3, pp. 137–139 (1950).
Delhaes P. and Carmona F., Physical Properties of Non-crystalline Carbons, Chemistry and Physics of Carbons, Eds. P.L. Walker, Jr. and P.A. Thrower, 17, pp. 89–167 (1981).
Issi J.P. in ‘Electronic Conduction in World of Carhon’, P. Delhaes Ed., Gordon and Breach, UK, (1998).
Drits V.A. and Tchoubar C, in ‘X-ray Diffraction by Disordered Lamellar Structures’, Springer-Verlag, Berlin Germmy (1990).
Scherrer P., Nachr. Ges. Wissensch., Gottingen, 2, p. 98 (1918).
Warren B.E., Phys. Rev., 59, 693–699 (1941).
Ruland W., Chemistry and Physics of Carbon, Ed. P.L. Walker Jr., Marcel Dekker, New York, NY., 4, pp. 1–84 (1970).
Ergun S., Carbon, 6, pp. 141–159 (1968).
Houska CR. and Warren B.E., J. Applied Physics, 25, pp. 1503–1509 (1954).
de Courville-Brenazin J., Joyez P. and Tchoubar D., J. Appl. Crystallography, 14, pp. 17–23 (1981).
Bouraoui A., Bull. Soc. Franç. Miné. Crist., 88, 633 (1965).
Schiller C, Méring J. and Oberlin M., J. Appl. Cryst., 1, pp. 282–285 (1968).
Aladekomo J.B. and Bragg R.H., Carbon, 28(6), pp. 897–906 (1990).
Maui A. and Vijayan K., J. Mat. Sci. Letter, 6, p. 872 (1987).
Bokros J.C, ‘Chemistry and Physics of Carbon’, Ed. P.L. Walker, Jr. 5, p.1 (1969).
Féron O., Langlais F. and Naslain R., in ‘Proc. of Eurocarbon’ 98,’ Strasbourg, France, July 5–9 1998, GFEC & AKK, pp. 647–648 (1998).
Doux F., ‘Analysis Magazine,’ 22(1), p. 31 (1994).
Dietendorf R.J. and Tokarsky E. W., The Relationships of Structure to Properties in Graphite Fibers, in ‘Air Force Report,’ AF 33(615)-70-C-1530 (1971).
Bourrat X., Trouvat B., Limousin G, Vignoles G. and Doux F., Pyrocarbon anisotropy as measured by electron diffraction and polarized light, J. Mater. Res., Vol. 15, No1, (2000).
Kaae J.L., Gulden T.D. and Liang S., Carbon, 10, pp. 701–709 (1972).
Kaae J.L., Carbon, 13, pp. 55–62 (1975).
X. Bourrat, R. Pailler and P. Hanusse, Proceed, of the 21st Biennial Conf on Carbon, Buffalo June 13–18, 1993, State Univ. of N.Y. at Buffalo, ACS edt., pp94–95 (1993).
Griffith A.A., Phil. Trans. Roy. Soc., A221, p. 163 (1921).
Bacon R.. in ‘Chemistry and Physics of Carbon,’ Eds. P.L. Walker Jr. and P.A. Thrower, 9, p. 1 (1973).
Reynolds W.N., in ‘Chemistry and Physics of Carbon,’ Eds. P.L. Walker Jr. and P.A. Thrower, 11, p. 1 (1973).
Johnson D.J. ‘Chemistry and Physics of Carbon,’ P.L. Walker Jr. and P.A. Thrower, 20, p. 1 (1987).
Barr J.B., Fracture Surfaces of Carbon Filaments, in ‘Proc. 21st Biennial Conf on Carbon,’ Buffalo, NY, Amer. Carb. Soc, June 13–18, pp. 118–119 (1993).
Irwin G.R., J. Appl. Mech., 24, p. 361 (1957).
Hong S.H., Korai Y. and Mochida I., in ‘Proc. 23th Biennial Conf on Carbon’, July 18–23 1997, Penn. State, American Carbon Society, pp. 412–413 (1997).
Warren B.E. and Gringriich N.S., Phys. Rev., 46, pp. 368–399 (1934); Warren B.E., J. Chem. Phys., 2, 551 (1934).
Biscoe J. and Warren B.E., J. of Applied Physics, 13, pp. 364–371 (1942).
Franklin R.E., Proc. Royal Society, 209, pp. 196–218 (1951).
Franklin R.E., Acta Cryst., 4, pp. 253–261 (1951).
Millet J., Millet J.E. and Vivares A., J. Chim. Phys., 60, p. 553 (1963).
Amelincks S., Delavignette P. and Heerschop M.,Chemistry and Physics of Carbon, Ed. P.L. Walker Jr., Marcel Dekker, New York, NY., 1, p. 1 (1965).
Méring J. and Maire J., J. Chim. Phys., 57, p. 803 (1960).
43. B.E. Warren and N.S. Gringriich, Phys. Rev., 46, pp 368–399 (1934); and B.E. Warren J. Chem. Phys., 2, 551 (1934)43. Brindley G.W. and Méring J., Acta Cryst., 4, pp. 411–447 (1951).
G.W. Brindley et J. Méring, Acta Cryst., 4, pp 411–447 (1951).
W. Ruland in “Chemistry and Physics ofCarbon”, edt by P.L. Walker Jr., Vol 4, pp 1–84, Marcel Dekker ed., New York, NY (1970).
CR. Houska and B.E. Warren, J. Applied Physics, 25, pp 1503–1509 (1954).
Maire J. and Méring J., Chemistry and Physics of Carbon, Ed. P.L. Walker Jr., 6, pp. 125–189 (1970).
J. Maire “Recherche sur le phénomène de graphitisation” Thèse de l’Université de Paris, AO 1350 (1967).
Oberlin A., Carbon, 11, p. 7 (1979).
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Bourrat, X. (2001). Characterisation of Carbon Structure. In: Rand, B., Appleyard, S.P., Yardim, M.F. (eds) Design and Control of Structure of Advanced Carbon Materials for Enhanced Performance. NATO Science Series, vol 374. Springer, Dordrecht. https://doi.org/10.1007/978-94-010-1013-9_3
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DOI: https://doi.org/10.1007/978-94-010-1013-9_3
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