R. Wood

发表

The temperature dependence of the standard-state thermodynamic properties of aqueous nonelectrolytes

M. Schulte, E. Shock, R. Wood, 2001 .

Estimation of errors in free energy calculations due to the lag between the hamiltonian and the system configuration

Robert H. Wood, R. Wood, 1991 .

Density and apparent molar volume of aqueous calcium chloride at 323-600 K

J. Gates, R. Wood, 1989 .

Prediction of osmotic and activity coefficients in mixed-electrolyte solutions

R. Robinson, P. Reilly, R. Wood, 1971 .

Apparent molar heat capacities of aqueous NaCl solutions from 0.05 to 3.0 mol·kg−1, 350 to 600 K, and 2 to 18 MPa

D. E. White, J. Gates, R. Wood, 1987 .

An Equation of State for Electrolyte Solutions Covering Wide Ranges of Temperature, Pressure, and Composition

S. Sandler, R. Wood, Jason A. Myers and, 2002 .

Free energy perturbation study of water dimer dissociation kinetics.

Yi Ming, Douglas J Doren, D. Doren, 2004, The Journal of chemical physics.

The enthalpy of dilution of HCl(aq) to 648 K and 40 MPa thermodynamic properties

D. G. Archer, J. Simonson, R. Mesmer, 1987 .

Conductivity of Dilute Aqueous Electrolyte Solutions at High Temperatures and Pressures Using a Flow Cell

D. A. Palmer, R. Wood, H. Bianchi, 2000 .

Aqueous Electrolytes At High Temperatures: Comparison Of Experiment With Simulation And Continuum Models

R. W. Carter, V. Majer, R. Wood, 1994 .

Heat of dilution of some aqueous tetraalkylammonium fluorides

J. D. Beck, R. Wood, H. L. Anderson, 1967 .

Volumetric properties of LiCl(aq) from 0.05 to 3.0 mol·kg−1, 322 to 550 K, and 0.8 to 32.6 MPa

V. Majer, R. Wood, A. Inglese, 1989 .

Chapter 4 – Calculation of standard thermodynamic properties of aqueous electrolytes and nonelectrolytes

V. Majer, R. Wood, J. Šedlbauer, 2004 .

Heat capacities of aqueous KCl from 325 to 600 K at 17.9 MPa

D. E. White, J. Gates, R. Wood, 1987 .

Chemical equilibrium model applied to aqueous magnesium sulfate solutions

D. G. Archer, R. Wood, 1985 .

Enthalpy of dilution of aqueous solutions of LiCl, NaBr, NaI, KCl, KBr, and CsCl at about 373, 423, and 473 K

R. Wood, J. E. Mayrath, 1982 .

Heat capacity of aqueous sodium chloride from 320 to 600 K measured with a new flow calorimeter

R. Wood, D. Smith-Magowan, 1981 .

Enthalpies of dilution of aqueous systems containing hexamethylenetetramine and other nonelectrolytes

R. Wood, I. R. Tasker, 1982 .

Enthalpies of dilution of aqueous solutions of formamide, acetamide, propionamide, andN,N-dimethylformamide

R. Wood, L. H. Hiltzik, 1980 .

Salting-in of alcohols in aqueous solutions by tetraalkylammonium bromides at the freezing temperature

G. Perron, J. Desnoyers, R. Wood, 1978 .

Freezing points, osmotic coefficients, and activity coefficients of salts in N-methylacetamide. II. Tetraalkylammonium halides and some alkali metal formates, acetates, and propionates

R. Kreis, R. Wood, 1971 .

Second Cross Virial Coefficients for Interactions Involving Water. Correlations and Group Contribution Values

Everett L. Shock, Andrey V. Plyasunov, E. Shock, 2003 .

THE HEAT, FREE ENERGY AND ENTROPY OF THE FERRATE(VI) ION

R. Wood, 1958 .

Predictions of thermodynamic properties at infinite dilution of aqueous organic species at high temperatures via functional group additivity

Eric M. Yezdimer, R. Wood, J. Šedlbauer, 2000 .

Tests of Equations for the Electrical Conductance of Electrolyte Mixtures: Measurements of Association of NaCl (Aq) and Na2SO4 (Aq) at High Temperatures

I. Mokbel, R. Wood, A. Xiao, 2001 .

A new equation of state for correlation and prediction of standard molal thermodynamic properties of aqueous species at high temperatures and pressures

J. O’Connell, R. Wood, J. Šedlbauer, 2000 .

A new version of vibrating-tube flow densitometer for measurements at temperatures up to 730 K

V. Majer, R. Crovetto, R. Wood, 1991 .

Apparent molar volumes of aqueous decyl- and dodecyltrimethylammonium bromides from 74 to 176°C at 10 and 320 bar☆☆☆

D. G. Archer, V. Majer, R. Wood, 1988 .

Volumetric properties of aqueous NaCl solutions from 0.0025 to 5.0 mol · kg−1, 323 to 600 K, and 0.1 to 40 MPa

J. Gates, V. Majer, R. Wood, 1988 .

Properties of aqueous solutions near the critical point of water: some remarkable effects

D. E. White, J. Gates, R. Wood, 1985 .

The enthalpies and entropies of dilution of alkali halides and tetraalkylammonium halides in N-methylacetamide

J. S. Falcone, R. Wood, 1974 .

Conductance of Dilute Sodium Acetate Solutions to 469 K and of Acetic Acid and Sodium Acetate/Acetic Acid Mixtures to 548 K and 20 MPa

R. Wood, G. H. Zimmerman, 2002 .

Volumes of aqueous solutions of CH4, CO2, H2S and NH3at temperatures from 298.15 K to 705 K and pressures to 35 MPa

V. Majer, R. Wood, L. Y., 1996 .

Enthalpies of mixing of some aqueous electrolytes at 373.15 K

R. Wood, J. E. Mayrath, 1982 .

Enthalpy of dilution of aqueous systems containing S-trioxane and some amides. Analysis of the interaction of saccharides with amides in aqueous media

I. Tasker, R. Wood, 1982 .

Interactions of ether groups with saccharides. Enthalpy of dilution of aqueous systems containing S-trioxane and inositol, mannitol, or cyclohexanol

I. Tasker, R. Wood, 1982 .

Thermodynamics of the Higher Oxides. III. The Lattice Energy of Potassium Ozonide and the Electron Affinity of Ozone1

L. D’orazio, R. Wood, 1965 .

Cyclic disulfides. II. 1,2-Dithiepan-5-amine.

R. Wood, H. F. Herbrandson, 1969, Journal of medicinal chemistry.

Influence of size, ellipticity and charge separation on the free energy of some aqueous bolaform electrolyte models

R. Wood, W. Davis, 1991 .

Equilibrium constant for the catenation of two hard tori

R. Wood, M. Palma, 1993 .

Enthalpy of dilution of aqueous mixtures of amides, sugars, urea, ethylene glycol, and pentaerythritol at 25°C: Enthalpy of interaction of the hydrocarbon, amide, and hydroxyl functional groups in dilute aqueous solutions

R. Wood, James J Savage, 1976 .

Enthalpy of dilution of tetra-n-butylammonium bromide in mixtures of water and N-methylacetamide

J. S. Falcone, R. Wood, 1974 .

Interactions of aqueous electrolytes with nonelectrolytes. Enthalpy of dilution of urea and tert-butyl alcohol in salt solutions

R. Wood, R. Cassel, 1974 .

Conductivity Measurements of Dilute Aqueous LiOH, NaOH, and KOH Solutions to High Temperatures and Pressures Using a Flow-Through Cell

R. Wood, P. C. Ho, and Donald A. Palmer, 2000 .

Heat capacity of aqueous sodium chloride from 320 to 600 K measured with a new flow calorimeter

R. Wood, D. Smith-Magowan, 1981 .

Enthalpy of dilution of aqueous sodium chloride at 348.15 to 472.95 K measured with a flow calorimeter

Robert H. Wood, James E Mayrath, R. Wood, 1975 .

Enthalpies of dilution of aqueous solutions of amides and alcohols

I. Tasker, R. Wood, 1982 .

Densities and heat capacities of 1-butanol + n-decane from 298 K to 400 K

J. Gates, C. Casanova, J. Grolier, 1986 .

Freezing temperatures and densities of solutions of some hydrocarbons and sodium oleate inN-methylacetamide. Evidence for a solvophobic interaction

R. Wood, Quentin D. Craft, 1977 .

Enthalpies of dilution of aqueous solutions of two hydrophobic solutes: t-butanol and tetra-n-butylammonium bromide, at 348.15 to 423.65 K☆

R. Wood, J. E. Mayrath, 1983 .

Heat capacities of binary and ternary aqueous solutions ofmyo-inositol, D-mannitol, and cyclohexanol. Heat capacity changes for interactions of the CH2 and CHOH groups

I. Tasker, R. Wood, 1983 .

Infinite dilution partial molar properties of aqueous solutions of nonelectrolytes. I. Equations for partial molar volumes at infinite dilution and standard thermodynamic functions of hydration of volatile nonelectrolytes over wide ranges of conditions

J. O’Connell, A. Plyasunov, R. Wood, 2000 .

Apparent molar volumes of aqueous solutions of some organic solutes at the pressure 28 MPa and temperatures to 598 K

C. M. Criss, R. Wood, 1996 .

Volumes and heat capacities of H3BO3(aq) at temperatures from 298.15 K to 705 K and at pressures to 35 MPa

V. Majer, L. Hnedkovsky, R. Wood, 1995 .

High‐precision flow densimeter for fluids at temperatures to 700 K and pressures to 40 MPa

R. Wood, H. Albert, 1984 .

Flow calorimetry and densitometry at high temperatures

R. Wood, 1989 .

Viscosities of solutions of electrolytes and nonelectrolytes inN-methylacetamide at 35° and 55°C

R. Wood, P. T. Thompson, M. Durbano, 1980 .

Freezing points and enthalpies of dilution of aqueous formic, acetic, propionic, and butyric acids. Free energies and enthalpies of solute—Solute interactions

R. Wood, P. T. Thompson, Alexander L. Harris, 1980 .

Enthalpy and entropy of dilution of tetraethanolammonium bromide

F. Belkin, R. Wood, 1973 .

Freezing points and enthalpies of dilute aqueous solutions of tetrahydropyran, 1,3-dioxane, 1,4-dioxane, and 1,3,5-trioxane. Free energies and enthalpies of solute-solute interactions

G. Perron, J. Desnoyers, R. Wood, 1981 .

Interactions in aqueous nonelectrolyte systems. Gibbs energy of interaction of the ether group with the hydroxyl group and the amide group

S. K. Suri, J. Spitzer, R. Wood, 1985 .

Heats of mixing aqueous electrolytes. VIII. Prediction and measurement of charge-asymmetric mixtures of three salts

R. Wood, M. Ghamkhar, J. Patton, 1969 .

Heats of Mixing of Aqueous Electrolytes. III. A Test of the General Equations with Quaternary Mixtures1

R. Wood, H. L. Anderson, 1966 .

Heats of Mixing of Aqueous Electrolytes. I. Concentration Dependence of 1-1 Electrolytes

R. Smith, R. Wood, 1965 .

Densities of toluene, of butanol and of their binary mixtures from 298 K to 400 K, and from 0.5 to 20.0 MPa

J. Gates, J. Grolier, R. Wood, 1985 .

Viscosities of solutions of electrolytes and non-electrolytes in ethylene carbonate at 40°C

R. Wood, P. T. Thompson, Barbara Fisher, 1982 .

Freezing temperatures and enthalpies of dilution of aqueous solutions of amides. Gibbs energies and enthalpies of interaction of the N,N-dimethylamide group in aqueous solutions

J. Spitzer, I. Tasker, J. Grolier, 1985 .

Freezing points, osmotic coefficients, and activity coefficients of some salts in ethylene carbonate: A high dielectric constant solvent without hydrogen bonding

R. Wood, Quentin D. Craft, 1978 .

Prediction of the properties of mixed electrolytes from measurements on common ion mixtures

P. Reilly, Robert H. Wood, P. J. Reilly, 1969 .

Freezing temperatures of aqueous solutions of methyl formate and ethyl acetate with a variety of nonelectrolytes. Gibbs energy of interaction of the ester group with other functional groups

S. K. Suri, R. Wood, Sushil K. Suri, 1986 .

Heat capacities of aqueous NaBr from 306 to 603 K at 17.5 MPa

D. E. White, J. Gates, R. Wood, 1987 .

The heat of mixing electrolytes: The cross-square rule in the solvent N-methylacetamide

J. S. Falcone, R. Wood, 1974 .

Thermochemical bond energies and chlorine-35 nuclear quadrupole resonance spectra of hexachlorogermanate(2-), hexachlorostannate(2-), and hexachloroplumbate(2-) ions

T. Brill, R. Wood, R. Gearhart, 1974 .

The Lattice Energy of Sodium Tetrachloroaluminate and the Heat Formation of the Tetrachloroaluminate Ion

L. D’orazio, R. Wood, 1966 .

Thermodynamics of the Higher Oxides. I. The Heats of Formation and Lattice Energies of the Superoxides of Potassium, Rubidium, and Cesium1

L. D’orazio, R. Wood, 1965 .

Madelung Constant for K2SO4(II)

R. Wood, 1960 .

Freezing points, osmotic coefficients, and activity coefficients of salts in N-methylacetamide. I. Alkali halides and nitrates

R. Kreis, R. Wood, R. Wicker, 1971 .

Heats of mixing of aqueous electrolytes. IV. Potassium salts of the fluoride, chloride, bromide, and acetate ions

R. Wood, H. L. Anderson, 1967 .

Modeling of the thermodynamics of electrolyte solutions to high temperatures including ion association: application to hydrochloric acid

D. G. Archer, J. Simonson, R. Mesmer, 1990 .

Densities of aqueous solutions of sodium chloride, magnesium chloride, potassium chloride, sodium bromide, lithium chloride, and calcium chloride from 0.05 to 5.0 mol kg-1 and 0.1013 to 40 MPa at 298.15 K

J. Gates, Jeffrey A. Gates, Robert H. Wood, 1985 .

Heat capacity of aqueous magnesium chloride from 349 to 598 K

D. E. White, J. Gates, R. Wood, 1988 .

Enthalpy of dilution of aqueous solutions of sodium sulfate, potassium sulfate, and magnesium sulfate at 373.15 and 423.65 K and of magnesium chloride at 373.15, 423.65 and 472.95 K

R. Wood, J. E. Mayrath, 1983 .

Electrical conductances of aqueous electrolytes at high temperatures: Limiting mobilities of several ions including the proton and HCl dissociation constant

V. Balashov, L. Hnedkovsky, R. Wood, 2017 .

Infinite dilution partial molar properties of aqueous solutions of nonelectrolytes. II. equations for the standard thermodynamic functions of hydration of volatile nonelectrolytes over wide ranges of conditions including subcritical temperatures

Everett L. Shock, John P. O'Connell, Andrey V. Plyasunov, 2000 .

Madelung Constants for the Calcium Carbide and Pyrite Crystal Structures

R. Wood, 1962 .

FREE ENERGIES OF SOLVATION WITH QUANTUM MECHANICAL INTERACTION ENERGIES FROM CLASSICAL MECHANICAL SIMULATIONS

Douglas J. Doren, D. Doren, Eric M. Yezdimer, 1999 .

Thermodynamics of aqueous acetic and propionic acids and their anions over a wide range of temperatures and pressures

V. Majer, L. Hnedkovsky, R. Wood, 2000 .

Modifications to a commercial flow microcalorimeter system

I. Tasker, R. Wood, H. Albert, 2007 .

A new version of differential flow heat capacity calorimeter; tests of heat loss corrections and heat capacities of aqueous NaCl from T = 300 K to T = 623 K

V. Hynek, V. Majer, L. Hnedkovsky, 2002 .

Calibration and sample-measurement techniques for flow heat-capacity calorimeters

R. W. Carter, R. Wood, 1991 .

Enthalpies of dilution of aqueous solutions of cyclohexanol, inositol, and mannitol

I. Tasker, R. Wood, 1982 .

Semiempirical equation of state for the infinite dilution thermodynamic functions of hydration of nonelectrolytes over wide ranges of temperature and pressure

Everett L. Shock, John P. O'Connell, Andrey V. Plyasunov, 2001 .

Volumetric properties of aqueous 1-1 electrolyte solutions near and above the critical temperature of water I. Densities and apparent molar volumes of NaCl(aq) from 0.0025 mol·kg−1 to 3.1 mol·kg−1, 604.4 K to 725.5 K, and 18.5 MPa to 38.0 MPa

V. Majer, R. Crovetto, R. Wood, 1991 .

Volumetric properties of NaBr (aq, m=0,05 to 3.0 mol.kg−1, T=322 to 550 K, p=0,8 to 32,6 MPa)

V. Majer, R. Wood, A. Inglese, 1989 .

A phase-locked loop for driving vibrating tube densimeters

Robert H. Wood, V. Majer, Vladimir Majer, 1989 .

Densities of {xCO2 + (1 − x)H2O} with x < 0.014 at supercritical conditions molar volumes, partial molar volumes of CO2 at infinite dilution, and excess molar volumes

V. Majer, R. Crovetto, R. Wood, 1990 .

Freezing temperatures of aqueous solutions of hexamethylenetetramine with polyols, amides, and ethers

J. Spitzer, R. Wood, Sushil K. Suri, 1985 .

Apparent molar heat capacities of aqueous solutions of phosphoric acid and sulfur dioxide from 303 to 623 K and a pressure of 28 MPa

R. Wood, A. Inglese, J. Šedlbauer, 1997 .

Apparent molar heat capacities of aqueous solutions of acetic, propanoic and succinic acids, sodium acetate and sodium propanoate from 300 to 525 K and a pressure of 28 MPa

R. Wood, A. Inglese, J. Šedlbauer, 1996 .

Heat capacities of 0.0150 mol·kg−1 NaCl(aq) from 604 to 718 K at 32 MPa☆

D. E. White, R. Wood, D. R. Biggerstaff, 1988 .

Absolute calibration of flow calorimeters used for measuring differences in heat capacities. A chemical standard for temperatures between 325 and 600K

D. E. White, R. Wood, 1982 .

Apparent molar heat capacitites of aqueous solutions of CH4, CO2, H2S, and NH3at temperatures from 304 K to 704 K at a pressure of 28 MPa

L. Hnedkovsky, R. Wood, 1997 .

Apparent molar heat capacities of aqueous solutions of propylamine, 1,4-butanediamine, 1,6-hexanediamine, propylamine hydrochloride, propionamide, pyridine, and sodium benzenesulfonate at temperatures from 300 K to 525 K and a pressure of 28 MPa

Eric M. Yezdimer, R. Wood, J. Šedlbauer, 1997 .

Volumes and heat capacities of aqueous solutions of hydrochloric acid at temperatures from 298.15 K to 623 K and pressures to 28 MPa

R. Wood, A. Sharygin, 1997 .

Apparent molar heat capacities of aqueous solutions of 1-propanol, butane-1,4-diol, and hexane-1,6-diol at temperatures from 300 K to 525 K and a pressure of 28 MPa

R. Wood, A. Inglese, 1996 .

Volumes and heat capacities of aqueous solutions of ammonium chloride from the temperatures 298.15 K to 623 K and pressures to 28 MPa

R. Wood, A. Sharygin, 1996 .

Heat Capacity Of Aqueous Iron Dichloride From 349 To 597 K

D. E. White, R. Wood, P. T. Thompson, 1988 .

Apparent molar heat capacities of aqueous argon, ethylene, and xenon at temperatures up to 720 K and pressures to 33 MPa

R. Wood, D. R. Biggerstaff, 1988 .

Heat capacities of aqueous argon from 306 to 578 K

D. E. White, R. Wood, D. R. Biggerstaff, 1985 .

Heat capacities of aqueous solutions of nickelous chloride and nickel chloride-sodium chloride (NiCl2.2NaCl) from 0.12 to 3.0 mol kg-1 and 321 to 572 K at a pressure of 17.7 MPa

R. Wood, D. Tillett, D. Smith-Magowan, 1982 .

Enthalpies of dilution and heat capacities of aqueous solutions of sodiumn-dodecylsulfonate and sodium 4-(1-methylundecyl)benzenesulfonate from 347 to 451°K

D. E. White, D. G. Archer, R. Wood, 1984 .

Experimental evidence for the remarkable behavior of the partial molar heat capacity at infinite dilution of aqueous electrolytes at the critical point

J. Gates, R. Wood, J. Quint, 1982 .

A relation between the critical properties of aqueous salt solutions and the heat capacity of the solutions near the critical point using a single-fluid corresponding-states theory☆

R. Wood, J. Quint, 1982 .

Volumetric properties of some aqueous nonelectrolyte solutions

S. K. Suri, J. Spitzer, I. Tasker, 1983 .

Equation of state of aqueous NaCl solutions over a wide range of temperatures, pressures and concentrations☆

R. Wood, S. N. Lvov, 1990 .

Thermodynamics of a charged hard sphere in a compressible dielectric fluid. A modification of the Born equation to include the compressibility of the solvent

J. Grolier, R. Wood, J. Quint, 1981 .

Infinite Dilution Partial Molar Volumes of Aqueous Solutes over Wide Ranges of Conditions

J. O’Connell, R. Wood, A. Sharygin, 1996 .

Dissociation constants and speciation in aqueous Li2SO4 and K2SO4 from measurements of electrical conductance to 673 K and 29 MPa

V. Balashov, C. Xiao, R. Wood, 2006 .

Apparent molar volumes of aqueous argon, ethylene, and xenon from 300 to 716 K

R. Wood, D. R. Biggerstaff, 1988 .

Comparison of experimental values of .hivin.V20, .hivin.CP02, and .hivin.CV02 for aqueous sodium chloride with predictions using the Born equation at temperatures from 300 to 573.15 K at 17.7 MPa

K. Pitzer, R. Wood, D. Smith-Magowan, 1983 .

Gibbs energies of interaction of the CH2 and CHOH groups from freezing point data for aqueous binary mixtures of D-mannitol,myo-inositol, and cyclohexanol

J. Spitzer, I. Tasker, R. Wood, 1984 .

Heat capacities of some binary and ternary aqueous nonelectrolyte systems

S. K. Suri, I. Tasker, R. Wood, 1984 .

Freezing points of aqueous alcohols. Free energy of interaction of the CHOH, CH2, CONH and CC functional groups in dilute aqueous solutions

R. Wood, P. T. Thompson, B. Okamoto, 1978 .

Heats Of Mixing Aqueous Electrolytes. XII. Reciprocal Salt Pair Na+, Li+.dvr.Cl-, SO42-

R. Wood, P. T. Thompson, Huifang Chen, 1975 .

Heats of mixing aqueous electrolytes. XI. Charge-asymmetric limiting law at low concentrations. Barium chloride with sodium chloride and sodium sulfate with sodium chloride

R. Wood, R. Cassel, 1974 .

Thermodynamic Properties of Dilute NaCl(aq) Solutions near the Critical Point of Water

R. Wood, J. Šedlbauer, 2004 .

Conductance of Dilute LiCl, NaCl, NaBr, and CsBr Solutions in Supercritical Water Using a Flow Conductance Cell

R. Wood, M. Gruszkiewicz, 1997 .

Solubility of Co2 in water and density of aqueous Co2 near the solvent critical temperature

R. Crovetto, R. Wood, 1992 .

Detection method for determining phase boundaries

R. Crovetto, R. Wood, V. Mayer, 1991 .

Calculation of excess Gibbs energies and activity coefficients from isopiestic measurements on mixtures of lithium and sodium salts

R. Robinson, P. Reilly, R. Wood, 1971 .

Partial molar volumes at infinite dilution in aqueous solutions of NaCl, LiCl, NaBr, and CsBr at temperatures from 550 K to 725 K

Eric M. Yezdimer, R. Wood, J. Šedlbauer, 1998 .

Rapidly converging activity expansions for representing the thermodynamic properties of fluid systems: gases, non-electrolyte solutions, weak and strong electrolyte solutions

T. H. Lilley, R. Wood, P. T. Thompson, 1978 .

Heats of mixing of aqueous electrolytes. V. Tetralkylammonium chlorides

R. Wood, H. L. Anderson, 1967 .

Free energies of aqueous mixtures of NaH2PO4 and NAClO4: Evidence for the species (H2PO4)2−2

R. Wood, R. F. Platford, 1975 .

Volume changes on mixing solutions of potassium halides and symmetrical tetraalkylammonium halides. Evidence for cation-cation interaction. A correction and further comments

K. Nara, R. Wood, W. Wen, 1968 .

Enthalpy of fusion and cryoscopic constant for ethylene carbonate

R. Taylor, R. Wood, P. T. Thompson, 1975 .

Systematic errors in free energy perturbation calculations due to a finite sample of configuration space: sample-size hysteresis

Robert H. Wood, Wolfgang C. F. Muhlbauer, Peter T. Thompson, 1991 .

Apparatus for growing single crystals in glass capillaries

J. D. Beck, R. Wood, 1969 .

Correction to "Electrical Conductances of Aqueous Na2SO4, H2SO4, and Their Mixtures: Limiting Equivalent Ion Conductances, Dissociation Constants, and Speciation to 673 K and 28 MPa".

V. Balashov, L. Hnedkovsky, R. Wood, 2005, The journal of physical chemistry. B.

Electrical conductances of aqueous Na2SO4, H2SO4, and their mixtures: limiting equivalent ion conductances, dissociation constants, and speciation to 673 K and 28 MPa.

V. Balashov, L. Hnedkovsky, R. Wood, 2005, The journal of physical chemistry. B.

New Apparatus for Conductance Measurements at High Temperatures: Conductance of Aqueous Solutions of LiCl, NaCl, NaBr, and CsBr at 28 MPa and Water Densities from 700 to 260 kg m-3

R. Wood, G. H. Zimmerman, M. Gruszkiewicz, 1995 .

Multiple Ion Association versus Redissociation in Aqueous NaCl and KCl at High Temperatures

V. Balashov, R. Wood, A. Sharygin, 2002 .

Hydration free energy and potential of mean force for a model of the sodium chloride ion pair in supercritical water with ab initio solute–solvent interactions

D. Doren, Wenbin Liu, R. Wood, 2003 .

The hydration free energy of aqueous Na+ and Cl- at high temperatures predicted by ab initio/classical free energy perturbation: 973 K with 0.535 g/cm3 and 573 K with 0.725 g/cm3

D. Doren, Wenbin Liu, R. Wood, 2002 .

Communication: Combining non-Boltzmann sampling with free energy perturbation to calculate free energies of hydration of quantum models from a simulation of an approximate model.

R. Wood, Haitao Dong, 2011, The Journal of chemical physics.

Exploring the ab initio/classical free energy perturbation method: The hydration free energy of water

D. Doren, Eric M. Yezdimer, Wenbin Liu, 2000 .

Prediction of the Gibbs energies and an improved equation of state for water at extreme conditions from ab initio energies with classical simulations

D. Doren, E. Shock, Wenbin Liu, 2001 .

Continuum electrostatics in a computational universe with finite cutoff radii and periodic boundary conditions: Correction to computed free energies of ionic solvation

R. Wood, 1995 .

Continuum Corrections to the Polarization and Thermodynamic Properties of Ewald Sum Simulations for Ions and Ion Pairs at Infinite Dilution

H. Ashbaugh, R. Wood, S. Sakane, 1998 .

Enthalpy of dilution of aqueous sodium sulfate and lithium sulfate

R. Wood, P. T. Thompson, Danne E. Smith, 1974 .

Heats of mixing aqueous electrolytes. IX. The reciprocal salt pair Mg2+, Na+||Cl-, Br-

P. Reilly, R. Wood, 1972 .

Heats of mixing aqueous electrolytes. VII. Calcium chloride and barium chloride with some alkali metal chlorides

R. Wood, M. Ghamkhar, 1969 .

ENTHALPY OF DILUTION OF AQUEOUS NA2SO4 AND LI2SO4

R. Wood, P. T. Thompson, Danne E. Smith, 1974 .

Heat of formation of gallium(I) tetrachlorogallate(III) and the chloride-gallium trichloride bond energy

J. D. Beck, N. N. Greenwood, R. Wood, 1970 .

Calculation of the osmotic and activity coefficients of seawater at 25°C

R. Robinson, R. Wood, 1972 .

Effects of long-range electrostatic potential truncation on the free energy of ionic hydration

H. Ashbaugh, R. Wood, 1997 .

Relationship between Certain Lattice Sums and the Madelung Constant

R. Wood, 1962 .

Conductance study of association in aqueous CaCl2, Ca(CH3COO)2, and Ca(CH3COO)2.nCH3COOH from 348 to 523 K at 10 MPa.

R. Wood, Lucila P Méndez De Leo, 2005, The journal of physical chemistry. B.

Free energy of solvation of a small Lennard–Jones particle

Ching-Lung Lin, Robert H. Wood, R. Wood, 1994, J. Comput. Chem..

The Entropies of Dilution of Strong Electrolytes

R. Wood, 1959 .

A chelating gel for collection of copper from seawater

C. Culberson, T. Church, R. Wood, 1982 .

Vapor pressures and densities of NaCl(aq) and KCl(aq) at the temperature 623 K and CaCl2(aq) at the temperatures 623 K and 643 K

Robert H. Wood, Rosa Crovetto, Sergei N. Lvov, 1993 .

Effect of an electric field on the vapor-liquid equilibrium of a dielectric field

J. Gates, R. Wood, J. Quint, 1985 .

Structure of an accurate ab initio model of the aqueous Cl- ion at high temperatures.

D. Doren, Wenbin Liu, R. Wood, 2006, The journal of physical chemistry. B.

The Heats and Entropies of Dilution of the Perchlorates of Magnesium and Strontium1

R. Wood, H. S. Jongenburger, 1965 .

Prediction of the Free Energy of Dilute Aqueous Methane, Ethane, and Propane at Temperatures from 600 to 1200 °C and Densities from 0 to 1 g cm-3 Using Molecular Dynamics Simulations

R. Wood, Ching-Lung Lin, 1996 .

Simple model for second virial coefficients which includes angular coordinates. Calculation of second virial coefficients for hydrocarbons and their mixtures

R. Wood, B. Okamoto, 1976 .

Heats of Mixing of Aqueous Electrolytes. II. Alkaline Earth Halides1

R. Wood, H. L. Anderson, 1966 .

Rapid calculation of the structures of solutions with ab initio interaction potentials

D. Doren, Wenbin Liu, R. Wood, 2002 .