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Home » Technical Physics » Year 2023, issue 3 » Article p. 315
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Structure studies of graded amorphous carbon obtained by liquid carbon quenching
Russian version
DOI: 10.21883/TP.2023.03.55804.206-22
Dozhdikov V. S. 1, Basharin A. Y. 1, Levashov P. R. 1
1Joint Institute for High Temperatures, Russian Academy of Sciences, Moscow, Russia
Email: vdozh@mail.ru, ayb@iht.mpei.ac.ru, pasha@jiht.ru
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A new method for obtaining graded amorphous carbon using quenching of a graphite melt on a diamond substrate is proposed. Using molecular dynamics modeling of liquid carbon quenching on a cold diamond substrate, it is shown that the amorphous carbon obtained in the experiment is a material with a strongly gradient structure and properties along the depth of the sample. This is due to the quenching rate decrease with the distance from the substrate in the range of 1014-1012 K/s. In this case, the density of amorphous carbon varies from 1.50 g/cm3 to 1.93 g/cm3. The spatial change in the structural characteristics of the obtained amorphous carbon was studied: the distribution of carbon atoms according to the degree of chemical bond hybridization (sp1-, sp2-, sp3-), the radial distribution function, the angular distribution function, and a statistical analysis of carbon rings were carried out. It is shown that at a pressure in liquid of 1 GPa, the carbon structure within the quenched zone changes from a highly porous structure with a large number of sp1 chains of carbon atoms near the substrate to an amorphous graphene structure at the periphery. Keywords: amorphous carbon, liquid carbon, quenching, molecular dynamics, radial distribution function.
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