Jean-Noël Jaubert mainly investigates Ionic liquid, Thermodynamics, Equation of state, Inverse gas chromatography and Inorganic chemistry. His studies in Ionic liquid integrate themes in fields like Imide and Solubility. His research integrates issues of Group contribution method, Mixing and Phase in his study of Thermodynamics.
His research investigates the link between Group contribution method and topics such as Vapor–liquid equilibrium that cross with problems in Acentric factor, Aromaticity and Hydrocarbon. His Equation of state research includes themes of Mathematical analysis, Cubic function and Phase diagram. While the research belongs to areas of Inverse gas chromatography, Jean-Noël Jaubert spends his time largely on the problem of Activity coefficient, intersecting his research to questions surrounding Dilution.
His scientific interests lie mostly in Thermodynamics, Equation of state, Phase, Group contribution method and Ionic liquid. The various areas that Jean-Noël Jaubert examines in his Thermodynamics study include Mixing and Cubic function. The Equation of state study combines topics in areas such as van der Waals force, Phase diagram and Supercritical fluid.
Jean-Noël Jaubert regularly links together related areas like Acentric factor in his Group contribution method studies. Jean-Noël Jaubert has researched Ionic liquid in several fields, including Inverse gas chromatography, Inorganic chemistry and Activity coefficient. His Inverse gas chromatography research integrates issues from Solvation and Partition coefficient.
Jean-Noël Jaubert mostly deals with Thermodynamics, Equation of state, Cubic function, Work and Process engineering. Thermodynamics is closely attributed to Phase in his study. His Equation of state study integrates concerns from other disciplines, such as Mathematical analysis, Volume, Residual, van der Waals force and Mixing.
His research in Cubic function intersects with topics in Statistical physics and Vapor pressure. The study incorporates disciplines such as Chemical energy, Heat recovery ventilation, Liquefied petroleum gas and Energy in addition to Work. His Process engineering research incorporates themes from Power, Thermal, Sizing and Chemical nomenclature.
His primary areas of investigation include Thermodynamics, Equation of state, Work, Cubic function and Supercritical fluid. He combines subjects such as Redlich–Kwong equation of state and Entropy with his study of Thermodynamics. His studies in Equation of state integrate themes in fields like Mathematical analysis, Volume, Process engineering, van der Waals force and Mixing.
In his study, Monte Carlo method and Impurity is strongly linked to Phase, which falls under the umbrella field of Work. His research in Cubic function tackles topics such as Statistical physics which are related to areas like Gibbs free energy, Van der Waals equation, Activity coefficient and Enthalpy. Jean-Noël Jaubert has included themes like Empirical modelling and Solubility in his Supercritical fluid study.
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VLE predictions with the Peng–Robinson equation of state and temperature dependent kij calculated through a group contribution method
Jean-Noël Jaubert;Fabrice Mutelet.
Fluid Phase Equilibria (2004)
Predicting the phase equilibria of CO2+hydrocarbon systems with the PPR78 model (PR EOS and kij calculated through a group contribution method)
Stéphane Vitu;Romain Privat;Jean-Noël Jaubert;Fabrice Mutelet.
Journal of Supercritical Fluids (2008)
Extraction of Thiophene or Pyridine from n-Heptane Using Ionic Liquids. Gasoline and Diesel Desulfurization
Karolina Kedra-Krolik;Mutelet Fabrice;Jean-Noël Jaubert.
Industrial & Engineering Chemistry Research (2011)
Relationship between the binary interaction parameters (kij) of the Peng–Robinson and those of the Soave–Redlich–Kwong equations of state: Application to the definition of the PR2SRK model
Jean-Noël Jaubert;Romain Privat.
Fluid Phase Equilibria (2010)
Extension of the PPR78 model (Predictive 1978, Peng-Robinson EOS with temperature dependent kij calculated through a group contribution method) to systems containing naphtenic compounds
Stéphane Vitu;Jean-Noël Jaubert;Fabrice Mutelet.
Fluid Phase Equilibria (2005)
Predicting the Phase Equilibria of Synthetic Petroleum Fluids with the PPR78 Approach
Jean‐Noël Jaubert;Romain Privat;Fabrice Mutelet.
Aiche Journal (2010)
Partition Coefficients of Organic Compounds in New Imidazolium and Tetralkylammonium Based Ionic Liquids Using Inverse Gas Chromatography
Fabrice Mutelet;Anne-Laure Revelli;Jean-Noël Jaubert;Laura M. Sprunger.
Journal of Chemical & Engineering Data (2010)
Accurate measurements of thermodynamic properties of solutes in ionic liquids using inverse gas chromatography.
Fabrice Mutelet;Jean-Noël Jaubert.
Journal of Chromatography A (2006)
Extraction of Benzene or Thiophene from n-Heptane Using Ionic Liquids. NMR and Thermodynamic Study
Anne-Laure Revelli;Fabrice Mutelet;Jean-Noël Jaubert.
Journal of Physical Chemistry B (2010)
A crude oil data bank containing more than 5000 PVT and gas injection data
Jean-Noël Jaubert;Laurent Avaullee;Jean-François Souvay.
Journal of Petroleum Science and Engineering (2002)
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