Диссертация (1097990), страница 49
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Let. 1986. V. 128. N. 5,6. P. 501-503.85. Amelinckx S., Delavignette P. Dislocation loops due to quenched-in point defects in graphite // Phys. Rev. Lett. 1960. V. 5. N. 2. P. 50-51.86. Hennig G.R. Screw dislocations in graphite // Science. 1965. V. 147.P. 733-734.87. Амелинкс С. Методы прямого наблюдения дислокаций. – М.: Мир, 1968.– 440 с.88. Мешков Г., Синицына О., Яминский И. Дислокационные сверхрешеткина поверхности графита // Наноиндустрия.
2009. № 6. С. 12-13.89. Атлас поверхности графита. http://www.nanoscopy.ru/uploads/files/Atlas.pdf90. Patel A.R., Bahl O.P. Evidence of screw dislocations in graphite // Brit. J.Appl. Phys. 1965. V. 16. P. 169-171.91. Букалов С.С., Михалицын Л.А., Зубавичус Я.В., Лейтес Л.А., НовиковЮ.Н.
Исследование строения графитов и некоторых других sp2 углеродныхматериалов методами микро-спектроскопии КР и рентгеновской дифрактометрии // Российский Химический Журнал. 2006. Т. 50. № 1. С. 83-91.92. Асиновский Э.И., Кириллин А.В., Костановский А.В. Экспериментальноеисследование термических свойств углерода при высоких температурах иумеренных давлениях // УФН.
2002. Т. 172. № 8. С. 931-944.93. Савватимский А.И. Плавление графита и жидкий углерод // УФН. 2003.Т. 173. № 12. С. 1371-1379.94. Spain I.L. The electronic properties of graphite // In Chem. and Phys. of Carbon. 1973. V. 10. P. 119-304.95. Spain I.L. Electronic transport properties of graphite, carbons, and related ma-- 343 terials // In Chem. and Phys. of Carbon. 1981.
V. 16. P. 1-186.96. Kawamura K., Ouchi Y., Oshima H. Electrical conduction in c-direction ofhighly crystalline graphites in relation to structural perfection // J. of the Phys. Soc.of Japan. 1979. V. 46. N. 2.97. McRae E.J. Contribution à l’étude de la resistivité éléctrique des composés lamellaires du graphite / Thèsis. – Université de Nancy, Naucy, France, 1988. –223 p.98. Котосонов А.С. Электропроводность углеродных материалов со структурой квазидвумерного графита // ФТТ. 1989. Т. 31.
С. 146-152.99. Wallace P.R. The band theory of graphite // Phys. Rev. 1947. V. 71. N. 9.P. 622-634.100. Стид Дж. В., Этвуд Дж.Л. Супрамолекулярная химия (Пер. с англ.). –М.: ИЦК Академкнига, 2007. – 480 с.101. Fischer J.E. Graphite intercalation compounds: Electronic properties and theircorrelation with chemistry // Physica B+C. 1980. V. 99. N. 1-4. P.
383-394.102. Hooley J.G., Garby W. P., Valentin J. The effect of sample shape on the bromination of graphite // Carbon. 1965. V. 3. P. 7-16.103. Hooley J.G. The intercalation of layered structures // Carbon. 1980. V. 18.P. 82-92.104. Rudorff W., Hoffman U. Uber graphitesaltes.
// Z. Anorg. Allg. Chemie.1938. V. 238. № 1. P. 1-50.105. Pietronero L., Strassler B. Bond-Length Change as a tool to determine chargetransfer and electron-phonon coupling in graphite intercalation compounds // Phys.Rev. Lett. 1981. V. 47. N. 8. P. 593-596.106. Flandrois S., Hauw C., Mathur R.B. Charge transfer in acceptor graphite intercalation compounds // Synth. Metals.
1989. V. 34. P. 399-404.107. Daumas N., Herold A. Sur les relations entre la notion de stade et les mécanismes reactionnels dans les composes d'insertion du graphite // C.R. Acad. Sci.1969. V. 268. P. 373-375.- 344 108. Rudorff W., Zeller R. Uber die aluminium chlorideinlagerung verbindungen //Z. Anorg. Allg. Chim. 1955.
V. 279. N. 3-4. P. 181-193.109. Lagrange P., Guerard D., Herold A. Sur la structure du compose KC 8 // Ann.Chim. 1978. V. 3. N. 2. P. 143-159.110. Rudorff W., Schulge E. Uber alkaligraphit verbindungen // Z. Anorg. Allg.Chem. 1954. V. 277. N. 3-4. P. 156-171.111. Rudorff W., Stumpp E., Spriessler W., Siecker F.W. Reaktion des graphitesmit metallchloriden // Angew. Chem. 1963. V. 75. N. 2. P. 130-136.112. Vangelisti R., Herold A. Etude des composes graphite-trichlorure d’or //C.R. Acad.
Sci. Ser. C. 1973. V. 276. N. 13. P. 1109-1110.113. Stumpp E., Werner F. Graphite intercalation compounds with chlorides ofmanganese, nickel and zinc // Carbon. 1966. V. 4. N. 4. P. 538.114. Melin J., Herold A. Thermal stability and structure of graphite antimony pentachlorure compounds // Carbon. 1975. V. 13. N. 5.
P. 357-362.115. Leung S.Y., Underhill C., Dresselhaus G., Krapchev T., Ogilvie R., Dresselhaus M.S. X-ray characterization of graphite intercalation compounds // Solid StateCommun. 1979. V. 32. N. 8. P. 635-638.116. Sasa T., Takahashi Y., Mikaido T.
Ternary lamellar compounds of graphitewith aluminium bromide and bromine // Bull. Chem. Soc. Jup. 1972. V. 45. N. 8.P. 2250-2254.117. Guerard D., Herold A. Intercalation of lithium into graphite and other carbons// Carbon. 1975. V. 13. N. 4. P. 337-345.118. Falardeau E.R., Hahlon L.R., Thompson T.E. Direct sinthesis of arsenic pentafturide in graphite // Inorg.
Chem. 1978. V. 17. N. 2. P. 301-303.119. Melin J., Herold A. Insertion des pentaftuorures d’antimoine, de niobium etde tantale dans le graphite // C.R. Acad. Sci. Ser. C. 1975. V.280. N.10. P.641-643.120. Interrante L.V., Marciewicz R.S., McKee D.W. Synthesis and property studies of graphite-MF5 (M = As, Sb) intercalation compounds // Synth. Metals. 1980.V. 1. N. 3.
P. 287-300.- 345 121. El Makrini M., Guerard D., Lagrange P., Herold A. Insertion de lanthanoidesdans le graphite // Carbon. 1980. V. 18. N. 3. P. 203-209.122. Rudorff W., Landel A. Uber die einlagerung von gallium chlorid und indiumchlorid in graphite // Z. Anorg. Allg. Chem. 1958. V. 293. N. 5-6. P. 327-342.123. Hamwim A. Fluorine reactivity with graphite and fullerenes. Fluoride donatives and some practical electrochemical applications // J. of Phys. and Chem.
ofSolids. 1996. V. 57. N. 6-8. P. 677-688.124. McRae E., Anderson O.E., Lelaurain M., Polo V., Sundquist B., Vangelisti R.Transport study of (T, p) phase diagram in PdAl 2Cl8 Intercalated Graphite // J. ofPhys. and Chem. of Solids. 1996. V. 57. N. 6-8. P. 827-831.125. Stumpp E., Ehrahdt C. Study of the Co–intercalation of lanthanide chloridesand yttrium chloride into graphite // Mol. Cryst. and Liq. Cryst. (9th ISIC). Arcachon, France, 1998. P. 75-80.126. Emery N., Herold C., Mareche J.-F., Bellouard C., Loupias G., Lagrange P.Superconductivity in Li3Ca2C6 intercalated graphite // J. of Solid State Chem.2006. V. 179.
N. 4. P. 1289-1292.127. Tressaud A. Aspects of intercalation of fluoirine and metal fluorides into graphite // Mol. Cryst. and Liq. Cryst. (7th ISIC). Louvain–la–Neuve, Belgium, 1993.P. 11-28.128. Polo V., Lelaurain M., Vangelisti R., McRae E. Electrical transport in metal(M = Cu, Cd, Pd) chloro-aluminate intercalated graphite // Mol. Cryst.
and Liq.Cryst. 1994. V. 245. P. 75-80.129. Negishi H., Negishi S., Shimada K., Narimura T., Higashiguchi M., Namatame H., Taniguchi M., Kobayashi K., Sugihara K., Oshima H. Electronic structures of HOPG and stage-2 IBr-GIC studied by angle resolved photoemission //J. of Phys. and Chem. of Solids. 2006.
V. 67. N. 5-6. P. 1145-1148.130. Cahen S., Vangelisti R., Bellouard C. Structural and magnetic properties of astage-2 HoCl3-graphite intercalation compound // Carbon. 2006. V. 44. N. 2.P. 259-266.- 346 131. Fauchard M., Cahen S., Lagrange P., Mareche J.-F., Herold C. Gold nanosheets intercalated between graphene planes // Carbon. 2013. V. 65.
P. 236-242.132. Nixon D.E., Parry G.S. The expansion of the carbon-carbon bond length inpotassium graphites // J. Phys. C: Solid State Physics. 1969. V. 2. P. 1732-1741.133. Krapchev T., Ogilvie R., Dresselhaus M.S. The effect of intercalation on thelattice constants of graphite // Carbon. 1982. V. 20. N. 4. P. 331-337.134. Safran S.A., Sahni P.S., Grest G.S. Kinetics of ordering in 2 dimensions.
I.Model systems // Phys. Rev. В. 1983. V. 28. № 5. P. 2693-2704.135. Safran S.A., Hamann D.R. Coherency strains and staging in graphite intercalation compounds // Physica B+C. 1980. V. 99. № 1-4. P. 494-499.136. Kirczenow G. Stage order and the dynamics of intercalate islands // Synth.Metals. 1985. V. 12. № 1/2. P. 143-148.137. Thomas J.M., Millward G.R., Schlogl R.F., Boehm H.R. Direct imaging of agraphite intercalate: evidence of interpenetration of stages in graphite: ferric chloride // Mat. Res. Bull. 1980.