Anisotropic Nanoclustered Carbon Phases Prepared from Fullerite C60 Under Non-hydrostatic High Pressure.

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Title: Anisotropic Nanoclustered Carbon Phases Prepared from Fullerite C60 Under Non-hydrostatic High Pressure.
Authors: Lyapin, A.G.1 alyapin@hppi.troitsk.ru, Mukhamadiarov, V.V.1, Brazhkin, V.V.1, Kondrin, M.V.1, Popova, S.V.1, Tatyanin, Ye. V.1, Bayliss, S.C.2, Sapelkin, A.V.2
Source: Fullerenes, Nanotubes & Carbon Nanostructures. Feb2004, Vol. 12 Issue 1/2, p235-241. 7p.
Subjects: Fullerenes, Nanostructures, Anisotropy, Carbon, Organic chemistry, Physics
Abstract: We show that application of the non-hydrostatic pressure to the cluster-based molecular material, like fullerite C60, provides a new opportunity to create elastically and structurally anisotropic carbon materials, including 2D polymerized rhombohedral C60 and graphite-type (sp2) disordered atomic-based phases. The elastic anisotropy, detected by the difference in the ultrasound velocities propagating along and across the loading axis, is directly confirmed by the results of x-ray diffraction. [ABSTRACT FROM AUTHOR]
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Abstract:We show that application of the non-hydrostatic pressure to the cluster-based molecular material, like fullerite C60, provides a new opportunity to create elastically and structurally anisotropic carbon materials, including 2D polymerized rhombohedral C60 and graphite-type (sp2) disordered atomic-based phases. The elastic anisotropy, detected by the difference in the ultrasound velocities propagating along and across the loading axis, is directly confirmed by the results of x-ray diffraction. [ABSTRACT FROM AUTHOR]
ISSN:1536383X
DOI:10.1081/FST-120027163