The Application Of A Recent Thermodynamic Model For Coke Crystallites: Chemisorption Of Methyl Groups, Decomposition Of Natural Gas, And The Reduction Of Metal Oxides

The Minerals, Metals and Materials Society
Halvor Dalaker Philippe Ouzilleau Patrice Chartrand
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The Minerals, Metals and Materials Society
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8
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508 KB
Publication Date:
Jan 1, 2015

Abstract

A size-dependant thermodynamical model for the carbon-hydrogen previously developed by Ouzilleau et al. [1] has been expanded here to include chemisorption of methyl groups. Gibbsenergy minimalisation calculations using FACTSAGE software on this model indicates that hydrogen bonding through methyl groups is energetically favoured as an intermediate between bonding as monoatomic hydrogen to edge hexagons (which is more favourable) and as monoatomic hydrogen to corner hexagons (which is less favourable). The model has also been applied to methane decomposition and oxide reduction using natural gas. A C-H solid solution as a thermodynamic description of the solid carbon phase influences calculations of carbon activity in metastable methane, and gives different results than when using graphite.
Citation

APA: Halvor Dalaker Philippe Ouzilleau Patrice Chartrand  (2015)  The Application Of A Recent Thermodynamic Model For Coke Crystallites: Chemisorption Of Methyl Groups, Decomposition Of Natural Gas, And The Reduction Of Metal Oxides

MLA: Halvor Dalaker Philippe Ouzilleau Patrice Chartrand The Application Of A Recent Thermodynamic Model For Coke Crystallites: Chemisorption Of Methyl Groups, Decomposition Of Natural Gas, And The Reduction Of Metal Oxides. The Minerals, Metals and Materials Society, 2015.

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