Chemical and Biomolecular Engineering

Advances in Heterophase Copolymer Synthesis

In W. Culbertson (Ed.), Multiphase Macromolecular Systems (pp. 213–226). Washington, D. C: American Chemical Society.

Molecular Simulation

Chemical Engineering Progress, 85, 23–27.

The Future of Thermodynamics

Chemical Engineering Progress, 85(2), 38–49.

SAFT: Equation-of-state solution model for associating fluids

Fluid Phase Equilibria, 52, 31–38.

Virial coefficients for the hard oblate spherocylinder fluid

Molecular Physics, 66(6), 1269–1272.

Hard‐sphere mixtures near a hard wall

The Journal of Chemical Physics, 90(7), 3704–3712.

Mixtures of associating spherical and chain molecules

Pure and Applied Chemistry, 61(6), 1021–1026.

Monte Carlo and simple theoretical calculations for ion-dipole mixtures

Molecular Physics, 66(2), 299–316.

Lennard-Jones Mixtures in a Cylindrical Pore. A Comparison of Simulation and Density Functional Theory

Molecular Simulation, 2(4-6), 393–411.

The Role of Computer Simulation in Studying Fluid Phase Equilibria

Molecular Simulation, 2(4-6), 223–252.

Nuclear spin relaxation due to the translational diffusion of hydrogen in BCC metals

Journal of Physics: Condensed Matter, 1(49), 9919–9930.

Nuclear Spin Relaxation due to Hydrogen Diffusion in b.c.c. Metals*

Zeitschrift Für Physikalische Chemie, 164(Part_1), 859–864.

Monte Carlo simulation of hard chain–hard sphere mixtures in slitlike pores

The Journal of Chemical Physics, 91(8), 4827–4837.

Generalized flory theories for predicting properties of fluids containing long chain molecules

Fluid Phase Equilibria, 53, 151–158.

An Impregnation-Reduction Method to Prepare Electrodes on Nafion SPE

Journal of The Electrochemical Society, 136(3), 899.

The transient diffusion-limited current to a sinusoidal wall

Journal of Electroanalytical Chemistry and Interfacial Electrochemistry, 258(2), 265–280.

The peroxide-coupling kinetics and dissociation constants of aqueous cysteine and glutathione: experimental and model results, and implications

Chemical Engineering Science, 44(4), 883–893.

The copper-catalyzed redox reaction between aqueous hydrogen peroxide and hydrazine. I. New experimental results and observations

Journal of the American Chemical Society, 111(22), 8398–8404.

The copper-catalyzed redox reaction between aqueous hydrogen peroxide and hydrazine. 2. Reaction mechanism, model analysis, and a comparison of model and experimental results

Journal of the American Chemical Society, 111(22), 8404–8410.

Segregation of metals at the oil-water interface: results and implications

Industrial & Engineering Chemistry Research, 28(5), 577–584.