Finite-size effects and thermodynamic limit in one-dimensional Janus fluids
arXiv:2107.13883 · doi:10.1088/1742-5468/ac2897
Abstract
The equilibrium properties of a Janus fluid made of two-face particles confined to a one-dimensional channel are revisited. The exact Gibbs free energy for a finite number of particles is exactly derived for both quenched and annealed realizations. It is proved that the results for both classes of systems tend in the thermodynamic limit () to a common expression recently derived (Maestre M A G and Santos A 2020 J Stat Mech 063217). The theoretical finite-size results are particularized to the Kern--Frenkel model and confirmed by Monte Carlo simulations for quenched and (both biased and unbiased) annealed systems.
arXiv comment23 one-column pages, 6 figures; v2: minor changes
References in corpus (12)
- Phase diagram of Janus Particles
- Penetrable Square-Well fluids: Exact results in one dimension
- Exact bulk correlation functions in one-dimensional nonadditive hard-core mixtures
- Triangle-Well and Ramp Interactions in One-Dimensional Fluids: A Fully Analytic Exact Solution
- Janus fluid with fixed patch orientations: theory and simulations
- A Numerical Test of a High-Penetrability Approximation for the One-Dimensional Penetrable-Square-Well Model
- Phase diagrams of Janus fluids with up-down constrained orientations
- A cluster theory for a Janus fluid
- Local and global properties of mixtures in one-dimensional systems. II. Exact results for the Kirkwood-Buff integral
- One-dimensional fluids with second nearest-neighbor interactions
- Non existence of a phase transition for the Penetrable Square Wells in one dimension
- One-dimensional Janus fluids. Exact solution and mapping from the quenched to the annealed system