Exploring anisotropic pressure and spatial correlations in strongly confined hard-disk fluids. Exact results
arXiv:2405.03362 · doi:10.1103/PhysRevE.110.L022601
Abstract
This study examines the transverse and longitudinal properties of hard disks confined in narrow channels. Employing an exact mapping of the system onto a one-dimensional polydisperse, nonadditive mixture of hard rods with equal chemical potentials, we compute various thermodynamic properties, including the transverse and longitudinal equations of state, along with their behaviors at both low and high densities. Structural properties are analyzed using the two-body correlation function and the radial distribution function, tailored for the highly anisotropic geometry of this system. The results are corroborated by computer simulations.
6 pages, 4 figures; v2: some clarifications and references have been added
References in corpus (2)
Cited by in corpus (4)
- Universality of the close packing properties and markers of isotropic-to-tetratic crossover in quasi-one-dimensional superdisk fluid
- Exact anisotropic properties of hard spheres in narrow cylindrical confinement
- Orientational ordering and correlations in a quasi-one-dimensional hard-dumbbell fluid
- Algebraic to exponential decay of spatial correlations in one-dimensional and confined hard-core fluids: A Laplace-pole analysis