Resummed thermodynamic perturbation theory for bond cooperativity in associating fluids with small bond angles: Effects of steric hindrance and ring formation
arXiv:1404.0919 · doi:10.1063/1.4871307
Abstract
In this paper we develop a thermodynamic perturbation theory for two site associating fluids which exhibit bond cooperativity. We include both steric hindrance and ring formation such that the equation of state is bond angle dependent. Here the bond angle is the angle separating the centers of the two association sites. As a test, new Monte Carlo simulations are performed, and the theory is found to accurately predict the internal energy as well as the distribution of associated clusters as a function of bond angle and bond cooperativity.
arXiv commentTo appear in The Journal of Chemical Physics
References in corpus (3)
- Thermodynamic perturbation theory for associating fluids with small bond angles: Effects of steric hindrance, ring formation and double bonding
- Resummed thermodynamic perturbation theory for bond cooperativity in associating fluids
- Molecular theory for the phase equilibria and cluster distribution of associating fluids with small bond angles
Cited by in corpus (5)
- A second order thermodynamic perturbation theory for hydrogen bond cooperativity in water
- Thermodynamic perturbation theory for associating fluids confined in a 1- dimensional pore
- On the cooperativity of association and reference energy scales in thermodynamic perturbation theory
- Quasichemical theory and the description of associating fluids relative to a reference: Multiple bonding of a single site solute
- A general mixture equation of state for double bonding carboxylic acids with >= 2 association sites