Proportional correlation between heat capacity and thermal expansion of atomic, molecular crystals and carbon nanostructures
M. S. Barabashko, A. I. Krivchikov, R. Basnukaeva, O. A. Korolyuk, A., Je\.zowski

TL;DR
This study reveals a proportional correlation between heat capacity and thermal expansion across various atomic and molecular crystals, including nanostructures, highlighting a universal relationship in specific temperature ranges.
Contribution
It introduces a proportional correlation model linking heat capacity and thermal expansion for diverse crystalline materials, including nanostructures and amorphous substances.
Findings
Proportional correlation between thermal expansion and heat capacity in atomic crystals.
Correlation observed in molecular crystals with linear symmetry below certain heat capacity values.
Universal proportionality identified across different materials within specific temperature ranges.
Abstract
Correlation between thermal expansions and heat capacity of atomic and molecular crystals, amorphous materials with a structural disorder, carbon nanomaterials (fullerite C, bundles SWCNTs of single-walled carbon nanotubes) was analyzed. The influence of the contribution to the coefficient of linear thermal expansion of Xe atoms adsorbed on the SWCNTs bundles is considered. The proportional correlation was found between the contribution to the coefficient of linear thermal expansion and the normalized to the gas constant heat capacity of Xe atoms adsorbed on the SWCNTs bundles. The proportional correlation with the parameter for the bulk thermal expansion coefficient for cryocrystals is proposed. In the case of atomic crystals such as Xe and Ar,…
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