B
Benoit Coasne
Researcher at University of Grenoble
Publications - 215
Citations - 9045
Benoit Coasne is an academic researcher from University of Grenoble. The author has contributed to research in topics: Adsorption & Porous medium. The author has an hindex of 49, co-authored 194 publications receiving 7369 citations. Previous affiliations of Benoit Coasne include Massachusetts Institute of Technology & University of Montpellier.
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Journal ArticleDOI
Adsorption, structure and dynamics of benzene in ordered and disordered porous carbons
Benoit Coasne,Christiane Alba-Simionesco,Fabrice Audonnet,Fabrice Audonnet,Gilberte Dosseh,Keith E. Gubbins +5 more
TL;DR: The results above show that the adsorption, structure, and dynamics of benzene confined in disordered porous carbons cannot be described in simple terms using an ideal model such as the slit pore geometry.
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How Ion Condensation Occurs at a Charged Surface: A Molecular Dynamics Investigation of the Stern Layer for Water–Silica Interfaces
Sarah Hocine,Remco Hartkamp,Remco Hartkamp,Remco Hartkamp,Bertrand Siboulet,Magali Duvail,Benoit Coasne,Benoit Coasne,Benoit Coasne,Pierre Turq,Jean-François Dufrêche +10 more
TL;DR: In this article, the authors investigated the Stern layer of charged silica-water interfaces by calculating the ion-surface interaction from molecular dynamics simulations, and provided a new image of the Stern layers.
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Effect of pressure on the freezing of pure fluids and mixtures confined in nanopores.
TL;DR: An extended version of this model is presented to confined systems for which an increase in the freezing temperature is observed, and it is shown that such a strong effect of pressure is not related to reduced compressibility within the pores.
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Freezing of argon in ordered and disordered porous carbon
TL;DR: In this paper, a molecular simulation study on the freezing of argon within two models of activated porous carbons is presented, where a regular slit-shaped nanopore is used to represent an ordered graphitic porous carbon with a single pore width.
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Under pressure: Quasi-high pressure effects in nanopores
TL;DR: In this article, the authors developed two models to study the pressure tensor of an argon nanophase confined in carbon micropores by molecular simulation, and showed that the in-pore tangential pressure is positive and on the order of 10 4 Â bar, while the normal pressure can be positive or negative depending on pore width, with a magnitude of ∼10 3 Âbar at ambient bulk pressure.