His primary areas of study are Thermodynamics, Statistical physics, Thermal diffusivity, Surface tension and Phase. His studies examine the connections between Thermodynamics and genetics, as well as such issues in Mechanics, with regards to Colloid. His work deals with themes such as Kinetic Monte Carlo, Monte Carlo molecular modeling, Phase diagram, Lennard-Jones potential and Hybrid Monte Carlo, which intersect with Statistical physics.
His study in Thermal diffusivity is interdisciplinary in nature, drawing from both Properties of water, Ideal gas, Supercooling and Molecular dynamics. His research investigates the link between Molecular dynamics and topics such as Kinetic energy that cross with problems in Molecule. His Phase research incorporates elements of Test particle, Canonical ensemble and Methane.
Thermodynamics, Statistical physics, Wetting, Thermal diffusivity and Molecular dynamics are his primary areas of study. The various areas that Jeffrey R. Errington examines in his Thermodynamics study include Saturation, Molecule, Phase and Properties of water. His research in Statistical physics intersects with topics in Series, Dynamic Monte Carlo method, Lennard-Jones potential and Phase diagram.
The study incorporates disciplines such as Monatomic ion, Contact angle and Surface tension in addition to Wetting. The concepts of his Thermal diffusivity study are interwoven with issues in Atomic packing factor, Hard spheres and Density functional theory. His Molecular dynamics study combines topics in areas such as Mechanics, Adsorption and Kinetic energy.
His main research concerns Thermodynamics, Wetting, Statistical physics, Contact angle and Surface tension. His studies in Thermodynamics integrate themes in fields like Saturation, Computational chemistry, Molecular dynamics and Adsorption. His Wetting research is multidisciplinary, incorporating perspectives in Molecular simulation, Octane and Lennard-Jones potential.
He integrates Statistical physics with Isotropy in his research. His biological study spans a wide range of topics, including Mechanics, Substrate and Gibbs isotherm. His work is dedicated to discovering how Surface tension, Electrostatics are connected with Ionic bonding and other disciplines.
The scientist’s investigation covers issues in Statistical physics, Isotropy, Diamond, Thermodynamics and Saturation. The Statistical physics study combines topics in areas such as Cluster expansion, Monte Carlo molecular modeling and Dynamic Monte Carlo method. His Thermodynamics study integrates concerns from other disciplines, such as Molecular simulation, Graphite and Surface strength.
His Saturation research is multidisciplinary, relying on both Vaporization and Liquid vapor. Polyelectrolyte is closely connected to Phase in his research, which is encompassed under the umbrella topic of Reentrancy. His Phase diagram research includes themes of Chemical physics, Multibody simulation, Metastability and Cluster.
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Relationship between structural order and the anomalies of liquid water
Jeffrey R. Errington;Pablo G. Debenedetti.
Direct calculation of liquid–vapor phase equilibria from transition matrix Monte Carlo simulation
Jeffrey R. Errington.
Journal of Chemical Physics (2003)
A Fixed Point Charge Model for Water Optimized to the Vapor−Liquid Coexistence Properties
Jeffrey R. Errington;Athanassios Z. Panagiotopoulos.
Journal of Physical Chemistry B (1998)
A computational study of hydration, solution structure, and dynamics in dilute carbohydrate solutions.
Sau Lawrence Lee;Pablo G. Debenedetti;Jeffrey R. Errington.
Journal of Chemical Physics (2005)
Surface tension and vapor-liquid phase coexistence of the square-well fluid
J.K. Singh;D.A. Kofke;J.R. Errington.
Layering and position-dependent diffusive dynamics of confined fluids
Jeetain Mittal;Thomas M. Truskett;Jeffrey R. Errington;Gerhard Hummer.
Physical Review Letters (2008)
Evaluating surface tension using grand-canonical transition-matrix Monte Carlo simulation and finite-size scaling.
Physical Review E (2003)
Molecular simulation of phase equilibria for mixtures of polar and non-polar components
J. J. Potoff;J. R. Errington;Athanassios Z. Panagiotopoulos.
Molecular Physics (1999)
Excess-entropy-based anomalies for a waterlike fluid.
Jeffrey R. Errington;Thomas M. Truskett;Jeetain Mittal.
Journal of Chemical Physics (2006)
Thermodynamics predicts how confinement modifies the dynamics of the equilibrium hard-sphere fluid.
Jeetain Mittal;Jeffrey R. Errington;Thomas M. Truskett.
Physical Review Letters (2006)
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