|
Book chapters
1.
“Solubility Measurements for CO2 and Methane Mixtures in
Water and Aqueous Electrolyte Solutions Near Hydrate Conditions,”
Ying Irene Zhang, Pallav Jain, Roger Chen, Douglas Elliot, Kyoo
Song, Walter Chapman, Riki Kobayashi, and Heng-Joo Ng published in
“Advances in the Study of Gas Hydrates,” Editors: Charles E. Taylor
and Jonathan T. Kwan, Springer (2004).
2.
“Applications of the SAFT Equation of State to Asphaltene
Precipitation under Pressure Depletion and Gas Injection,” P. David
Ting, Doris Gonzalez, George Hirasaki, and Walter G. Chapman to be
published in Asphaltenes, Heavy Oils and Petroleomics, Editors: OC
Mullins, EY Sheu, A Hammami, and AG Marshall (2006).
Publications
(In Reverse
Chronological Order)
1. Doris L. Gonzalez, Francisco
M. Vargas, George J. Hirasaki and Walter G. Chapman. "Modeling Study
of CO2-Induced Asphaltene Precipitation". Energy and
Fuels, 22, 757–762 (2008).
2. Gaurav Bhatnagar, Walter G.
Chapman, Gerald R. Dickens, Brandon Dugan, and George J. Hirasaki,
"Sulfate-methane transition as a proxy for average methane hydrate
saturation in marine sediments," Geophysical Research Letters, 35,
L03611 (2008).
3. Shekhar Jain, Aleksandra
Dominik, and Walter G. Chapman, "Modified Interfacial SAFT: A
perturbation density functional theory for inhomogeneous complex
fluids," J. Chem. Phys.,
127, 244904 (2007).
4. Adam Bymaster, Aleksandra
Dominik, and Walter G. Chapman, "Hydration Structure and Interfacial
Properties of Water Near a Hydrophobic Solute from a Fundamental
Measure Density Functional Theory," J. Phys. Chem. C, 111,
15823-15831 (2007).
5. Aleksandra Dominik, Shekhar
Jain and Walter G. Chapman, "New
equation of state for polymer solutions based on the statistical
associating fluid theory (SAFT)-Dimer equation for hard-chain
molecules," I&EC Research, 46, 5766-5774 (2007).
6. Clint P. Aichele, Mark Flaum,
Tianmin Jiang, George J. Hirasaki, and Walter G. Chapman, "Water in
oil emulsion droplet size characterization using a pulsed field
gradient with diffusion editing (PFG-DE) NMR technique,"
J. Colloid and Interfacial Science, 315, 607-619 (2007).
7. Gaurav Bhatnagar, Walter G.
Chapman, Gerald R. Dickens, Brandon Dugan, and George J. Hirasaki,
"Generalization of gas hydrate distribution and saturation in marine
sediments by scaling of thermodynamic and transport processes,"
Amer. J. Science, 307, 861-900 (2007).
8. Doris L. Gonzalez, George J.
Hirasaki, Jeff Creek, and Walter G. Chapman, "Modeling of Asphaltene
Precipitation Due to Changes in Composition Using the Perturbed
Chain Statistical Associating Fluid Theory Equation of State,"
Energy & Fuels, 21, 1231-1242 (2007).
9. Aleksandra Dominik, Sandeep
Tripathi and Walter G. Chapman, "Bulk and Interfacial Properties of
Polymers from Interfacial SAFT Density Functional Theory,"
I&EC Research, 45, 6785-6792 (2006).
10. Matt Yarrison, Kenneth R. Cox, and Walter G. Chapman, "Measurement and Modeling of
the Solubility of Water in Supercritical Methane and Ethane from 310
to 477 K and Pressures from 3.4 to 110 MPa,"
I&EC Research., 45,
6770-6777 (2006).
11.
Shuqiang Gao, Waylon House, and
Walter G. Chapman, “Detecting gas hydrate behavior in crude oil
using NMR, ”
J. Phys. Chem. B., 110,
6549-6552 (2006).
12. Aleksandra Dominik and Walter
G. Chapman, “Thermodynamic model for branched polyolefins using the
PC-SAFT equation of state,”
Macromolecules, 38, 10836-10843 (2005).
13. Piyush Srivastava,
Walter G. Chapman, and Paul E.
Laibinis, “Odd-even variations in the wettability of n-alkanethiolate
monolayers on gold by water and hexadecane: A molecular dynamics
simulation study,” Langmuir, 21, 12171-12178 (2005).
14.
Shuqiang Gao, Waylon House, and
Walter G. Chapman, “NMR and Viscosity Investigation of Clathrate
Hydrate Mechanisms,” I&EC Research, 44, 7373-7379 (2005).
15.
Shuqiang Gao, Waylon House, and
Walter G. Chapman, “NMR/MRI study of the water / clathrate hydrate
interface,” J. Phys. Chem. B., 109, 19090-19093 (2005).
16. Aleksandra Dominik, Walter G.
Chapman, Matthias Kleiner, and Gabriele Sadowski, “Modelling of
polar systems with the PC-SAFT equation of state: Investigation of
the performance of two polar terms,” I&EC Research, 44,
6928-6938 (2005).
17. Sandeep Tripathi and Walter
G. Chapman, “Microstructure and thermodynamics of inhomogeneous
polymer blends and solutions,” Physical Review Letters, 94,
087801 (2005).
18. Sandeep Tripathi and Walter G.
Chapman, “Microstructure of
inhomogeneous polyatomic mixtures from a density functional
formalism for atomic mixtures,” J. Chem. Phys., 122, 94506
(2005).
19. Aleksandra Dominik, Pallav
Jain, and Walter G. Chapman, “Modified
thermodynamic perturbation theory for fused-sphere dimer fuids,”
Mol. Phys., 103, 1387-1394 (2005).
20. Doris L. Gonzalez, P. David
Ting, George J. Hirasaki, and Walter G. Chapman, “Prediction of
Asphaltene Instability under Gas Injection with the SAFT Equation of
State”, Energy & Fuels, 19, 1230-1234 (2005).
21. Auleen Ghosh, Jorg Blaesing,
Prasanna Jog, and Walter G.
Chapman, "Perturbed Dipolar Chains: A
Thermodynamic Model for Polar Copolymers,” Macromolecules, 38,
1025-1027 (2005).
22. Matt Yarrison and Walter G.
Chapman, "A systematic
study of methanol + n-alkane vapor–liquid and liquid–liquid
equilibria using the CK-SAFT and PC-SAFT equations of state,” Fluid
Phase Equilibria, 226, 195-205 (2004).
23. Auleen Ghosh, P. David Ting,
and Walter G.
Chapman, "Thermodynamic Stability
Analysis and Pressure-Temperature Flash for Polydisperse Polymer
Solutions,” I&EC Research, 43, 6222-6230 (2004).
24. Kyoo Y. Song, Matt Yarrison,
and Walter G.
Chapman, “Experimental
low temperature water content in gaseous methane, liquid ethane, and
liquid propane in equilibrium with hydrate at cryogenic conditions,”
Fluid Phase Equilibria, 224, 271-277 (2004).
25. Walter G.
Chapman
Sharon G. Sauer, P. David Ting and Auleen Ghosh, "Phase Behavior
Applications of SAFT based Equations of State – from Associating
Fluids to Polydisperse, Polar Copolymers," Fluid Phase Equilibria,
217, 137-143 (2004).
26. Sandeep Tripathi
and Walter
G. Chapman, "Density-functional theory for polar fluids at
functionalized surfaces. I. Fluid wall association,” J. Chem. Phys.
119, 12611-12620 (2003).
27. Sharon
Sauer and
Walter G. Chapman, "A Parametric Study of Dipolar Chain Theory with
Applications to Ketone Mixtures," Ind. Eng. Chem. Res., 42,
5687-5696 (2003).
28. Sandeep
Tripathi
and Walter G. Chapman, "An algorithm for calculating the chemical
potential in associating and reacting fluids," Molecular Physics,
206, 267-286
(2003).
29. Sandeep
Tripathi
and Walter G. Chapman, "Adsorption
of associating fluids at active surfaces: a density functional
theory,"
Cond. Matt. Phys.,
6, 523-540
(2003).
30. Sandeep
Tripathi
and Walter G. Chapman, "A density functional approach to chemical
reaction equilibria in nanoscale systems," J. Chem. Phys., 118,
7993-8003 (2003).
31. P. David Ting, George J.
Hirasaki, and Walter G. Chapman, Modeling of Asphaltene Phase
Behavior with the SAFT Equation of State, J. Pet. Sci. Tech., 21,
647-661 (2003).
32. Auleen Ghosh, Walter G.
Chapman, Ray N. French, “Gas solubility in hydrocarbons – a SAFT-based
approach,” Fluid Phase Equilibria 209, 229-243 (2003).
33.
P. David
Ting, Patrick C. Joyce, Prasanna K. Jog, Walter G. Chapman, and Mark
C. Thies, "Phase Equilibrium Modeling of Long-Chain and Short-Chain
n-Alkane Mixtures Using Peng-Robinson and SAFT." Fluid Phase
Equilibria, 206,
267-286 (2003).
34. Auleen Ghosh and Walter G.
Chapman, SAFT Modeling of the Effect of Various Carriers on the
Operating Range of Slurry Reactors, Ind. Eng. Chem. Res. 41,
5529-5533 (2002).
35. Prasanna K. Jog, Walter G.
Chapman, Sumnesh K. Gupta, and Robert D. Swindoll, “Modeling of
Liquid-Liquid Phase Separation in Linear Low Density
Polyethylene-Solvent Systems Using the SAFT Equation of State,” Ind.
Eng. Chem. Res., 41, 887-891 (2002).
36. Prasanna K. Jog and Walter G.
Chapman, “An Algorithm for Calculation of Phase Equilibria in
Polydisperse Polymer Solutions,” Macromolecules, 35,
1002-1011 (2002).
37. Prasanna K. Jog, Sharon G.
Sauer, Jorg Blaesing, and Walter G. Chapman, “Application of Dipolar
Chain Theory to the Phase Behavior of Polar Fluids and Mixtures,”
I&EC Research, 40, 4641-4648 (2001).
38. Yurko Duda, Lloyd L. Lee, Yurij
Kalyuzhnyi, Walter G. Chapman, and P. David Ting, “Structure and
bridge functions of fused-sphere dimeric fluids,” Chem. Phys. Lett.,
339, 89-95 (2001).
39. Yurko Duda, Lloyd L. Lee, Yurij
Kalyuzhnyi, Walter G. Chapman, and P. David Ting, “Structures of
fused-dimer fluids: A new closure based on the potential
distribution theorems,” J. Chem. Phys., 114, 8484-8491
(2001)).
40. Chad J. Segura, Jie Zhang and
Walter G. Chapman, “Binary Associating Fluid Mixtures against a Hard
Wall: Density Functional Theory and Simulation,” Mol. Phys., 99,
1-12 (2001).
41. Keshawa P. Shukla and Walter G.
Chapman, “TPT2 and SAFTD Equations of State for Mixtures of Hard
Chain Copolymers,” Mol. Phys., 98, 2045-2052 (2000).
42. Prasanna K. Jog and Walter G.
Chapman, “Application of Wertheim’s Thermodynamic Perturbation
Theory to Dipolar Hard Sphere Chains,” Mol. Phys.97,
307-319 (1999).
43. Prasanna K. Jog, Alejandro
Garcia-Cuellar and Walter G. Chapman, “Extensions and Applications
of the SAFT Equation of State to Solvents, Monomers, and Polymers,”
Fluid Phase Equilibria, 158-160, 321-326 (1999).
44. Alejandro Garcia-Cuellar and
Walter G. Chapman, “Solvent Effects in Model Telechelic Polymers,”
Mol. Phys., 96, 1063-1074 (1999).
45. Yurko Duda, Chad J. Segura,
Eduard V. Vakarin, M.F. Holovko, and Walter G. Chapman, “Network
forming fluids: Integral equations and Monte Carlo simulations,”
J. Chem. Phys., 108, 9168-9176 (1998).
46. Chad J. Segura, Eduard V.
Vakarin, Walter G. Chapman, and M.F. Holovko, “A comparison of
density functional and integral equation theories versus Monte Carlo
simulations for hard sphere associating fluids near a hard wall,”
J. Chem. Phys., 108, 4837-4848 (1998).
47. Keshawa P. Shukla and Walter G.
Chapman, "A Two Fluid Theory for Chain Fluid Mixtures from
Thermodynamic Perturbation Theory," Mol. Phys., 93, 287-293
(1998).
48. Keshawa P. Shukla and Walter G.
Chapman, "SAFT Equation of State for Fluid Mixtures of Hard Chain
Copolymers," Mol. Phys., 91, 1075-1081 (1997).
49. Chad J. Segura, Walter G.
Chapman, and Keshawa P. Shukla, "Associating Fluids with Four
Bonding Sites Against a Hard Wall: Density Functional Theory," Mol.
Phys., 90, 759-771 (1997).
50. Alejandro Garcia-Cuellar,
Dhananjay Ghonasgi, and Walter G. Chapman, "Competition between
Intermolecular and Intramolecular Association in Polyatomic
Molecules: Theory and Simulation," Fluid Phase Equilibria, 116,
275-281 (1996).
51. L.L. Lee, L.-J. Lee, D.
Ghonasgi, M. Llano-Restrepo, W.G. Chapman, K.P. Shukla, and E. Lomba,
"Theory and Simulation for Electrolyte Solutions: Applications to
the Phase Equilibria of mixed solvent systems," Fluid Phase
Equilibria, 116, 185-192 (1996).
52. Lloyd L. Lee, Mario Llano-Restrepo,
Walter G. Chapman, and Keshawa P. Shukla, "Improved MSA Theory for
Concentrated Electrolyte Solutions Based on Monte Carlo Simulation
at High Ionic Strengths," J. of The Chin. I. Ch. E., 27,
213-233 (1996).
53. C. J. Segura and W.G. Chapman,
"Associating Fluids with Four Bonding Sites against Solid Surfaces:
Monte Carlo Simulations," Mol. Phys., 86, 415‑442 (1995).
54. C.A. Glandt and W.G. Chapman,
"Effect of Water Dissolution on Oil Viscosity," SPE Reservoir
Engineering, 10, 59‑64 (February 1995).
55. D. Ghonasgi and W.G. Chapman,
"Competition between Intermolecular and Intramolecular Association
in Flexible Hard Chain Molecules," J. Chem. Phys., 102,
2585‑2592 (1995).
56. M. Llano-Restrepo and W.G.
Chapman, "Bridge Function and Cavity Correlation Function from
Simulation: Implications on Closure Relations," Inter. J.
Thermophys., 16, 319‑326 (1995).
57. D. Ghonasgi, V. Perez, and W.G.
Chapman, "Prediction of the Thermodynamic Properties of Complex
Polyatomic Hydrogen Bonding Fluids," Inter. J. Thermophys., 16,
715‑722 (1995).
58. Yu. V. Kalyuzhnyi, G. Stell, M.
Llano-Restrepo, W.G. Chapman, and M.F. Holovko, "Primitive Models of
Chemical Association. I. Theory and Simulation for Dimerization," J.
Chem. Phys., 101, 7939‑7952 (1994).
59. D. Ghonasgi, V. Perez, and W.G.
Chapman, "Intramolecular Association in Flexible Hard Chain
Molecules," J. Chem. Phys., 101, 6880‑6887 (1994).
60. D. Ghonasgi and W.G. Chapman,
"Theory and Simulation for Associating Hard Chain Fluids," Molec.
Phys., 83, 145‑158 (1994).
61. M. Llano-Restrepo and W.G.
Chapman, "Monte Carlo simulation of the structural properties of
concentrated aqueous alkali halide solutions at 25symbol 176 \f
"Symbol" C using a simple civilized model," J. Chem. Phys. 100,
8321‑8339 (1994).
62. M. Llano-Restrepo and W.G.
Chapman, "Bridge Function and Cavity Correlation Function for the
Soft Sphere Fluid from Simulation: Implications on Closure
Relations," J. Chem. Phys., 100, 5139‑5148 (1994).
63. D. Ghonasgi and W.G. Chapman,
"A New Equation of State for Hard Chain Molecules," J. Chem. Phys.
100, 6633‑6639 (1994).
64. D. Ghonasgi and W.G. Chapman,
"Prediction of the Properties of Model Polymer Solutions and
Blends," AIChE Journal, 40, 878‑887 (1994).
65. D. Ghonasgi, M. Llano-Restrepo,
and W.G. Chapman, "Henry's Law Constant for Diatomic and Polyatomic
Lennard-Jones Molecules," J. Chem. Phys., 98, 5662‑5667
(1993).
66. D. Ghonasgi and W.G. Chapman,
"Theory and Simulation of Associating Chain Fluids," Molec. Phys.,
80, 161‑176 (1993).
67. P. Etesse, W.G. Chapman, and R.
Kobayashi, "Nuclear Magnetic Resonance Measurement of Spin-lattice
Relaxation and Self-diffusion in Supercritical CO2-n-hexadecane
Mixtures," Molec. Phys., 80, 1145‑1164 (1993).
68. D. Ghonasgi and W.G. Chapman,
"Theory and Simulation for Associating Fluids with Four Bonding
Sites," Molec. Phys., 79, 291‑311 (1993).
69. M. LLano-Restrepo and W.G.
Chapman, "Bridge Function and Cavity Correlation Function for the LJ
Fluid from Simulation," J. Chem. Phys., 97, 2046‑2054 (1992).
70. W.G. Chapman, "Prediction of
the Thermodynamic Properties of Associating Lennard-Jones Fluids:
Theory and Simulation," J. Chem. Phys., 93, 4299‑4304 (1990).
71. W.G. Chapman, K.E. Gubbins, G.
Jackson, and M. Radosz, "New Reference Equation of State for
Associating Liquids," I&EC Research, 29, 1709‑1721 (1990).
72. W.G. Chapman, K.E. Gubbins, G.
Jackson, and M. Radosz, "SAFT: Equation‑ of‑State Solution Model
for Associating Fluids," Fluid Phase Equilibria, 52, 31‑38
(1989).
73. G. Jackson, W.G. Chapman, and
Keith E. Gubbins, "Phase Equilibria of Associating Fluids: Chain
Molecules with Multiple Bonding Sites," Proceedings of the
International Symposium on Thermodynamics in Chemical Engineering
and Industry, Beijing, China, June 1988.
74. G. Jackson, W.G. Chapman, and
Keith E. Gubbins, "Phase Equilibria of Associating Fluids of
Spherical and Chain Molecules," Int. J. Thermophys., 9,
769‑779 (1988).
75. Walter G. Chapman, George
Jackson, and Keith E. Gubbins, "Phase equilibria of associating
fluids ‑ Chain molecules with multiple bonding sites," Molec. Phys.,
65, 1057‑1079, (1988).
76. George Jackson, Walter G.
Chapman, and Keith E. Gubbins, "Phase equilibria of associating
fluids ‑ Spherical molecules with multiple bonding sites," Molec.
Phys., 65, 1‑31, (1988).
77. William R. Adams, John A.
Zollweg, William B. Streett, Walter G. Chapman, Paulette Clancy,
"The Excess Enthalpy of a Mixture of Krypton and Xenon: Experiment
and Theory," Fluid Phase Equilibria, 40, 247‑257, (1988).
78. C.G. Joslin, C.G. Gray, W.G.
Chapman, and K.E. Gubbins, "Theory and Simulation of Associating
Liquid Mixtures II," Molec. Phys., 62, 843‑860, (1987).
79. W.G. Chapman, K.E. Gubbins, C.G.
Joslin, and C.G. Gray, "Mixtures of Polar and Associating
Molecules," Pure & Appl. Chem., 59, 53‑60, (1987).
80. P. Gopal, W.G. Chapman, J.A.
Zollweg, P. Clancy, and W.B. Streett, "Excess Enthalpies of {xN2 +
(1‑x)CO}(l) at 83.82 K: Experiment and Theory," J. Chem. Thermodyn.,
19, 527‑534, (1987).
81. W.G. Chapman, K.E. Gubbins, C.G.
Joslin, and C.G. Gray, "Theory and Simulation of Associating Liquid
Mixtures," Fluid Phase Equilibria, 29, 337‑346, (1986).
82. W. Chapman and N. Quirke,
"Metropolis Monte Carlo Simulation of Fluids with Multiparticle
Moves," Physica 131B, 34‑40, (1985).
|