Short Range United Atom Potentials for Alkanes: Decane and Nonane
- 1 January 2003
- journal article
- research article
- Published by Taylor & Francis in Molecular Simulation
- Vol. 29 (2) , 77-82
- https://doi.org/10.1080/0892702031000065755
Abstract
The usefulness of a computational model can be judged not only by how accurately it reproduces experimental data but also how rapidly. Building on previous work by Smit et al. ["Computer simulations of vapor-liquid phase equilibria of n -alkanes," J. Chem. Phys. , 102 (1995) 2126], we investigate a short range potential for decane and nonane, with cut off distances R c down to 6 Å. We found that at R c =8 Å (or 2.04 CH 2 ) united atom potentials can be determined which are capable of providing an accurate description not only of alkane bulk phase behaviour but also interfacial properties.Keywords
This publication has 31 references indexed in Scilit:
- Models of electron trapping and transport in polyethylene: Current–voltage characteristicsJournal of Applied Physics, 2002
- Molecular dynamics simulation of the linear low-density polyethylene crystallizationThe Journal of Chemical Physics, 2001
- Molecular modeling of electron trapping in polymer insulatorsThe Journal of Chemical Physics, 2000
- Optimization of Hydrocarbon Chain Interaction Parameters: Application to the Simulation of Fluid Phase Lipid BilayersThe Journal of Physical Chemistry B, 1999
- Computer Simulation Studies of Molecular Orientation and the Stress−Optical Properties of Polyethylene NetworksMacromolecules, 1999
- Entropically Induced Euler Buckling Instabilities in Polymer CrystalsPhysical Review Letters, 1999
- What Is the Longest Unbranched Alkane with a Linear Global Minimum Conformation?Journal of Chemical Information and Computer Sciences, 1997
- Characterization of lipid membrane dynamics by simulation: I. Torsion angle motions of the linear chainsBiopolymers, 1997
- Simulation of the temperature dependence of mechanical properties of polyethyleneThe Journal of Physical Chemistry, 1994
- Molecular dynamics simulation of a bilayer membraneThe Journal of Chemical Physics, 1982