Fermi-Based Kinetic Model for the Sabatier Reaction: Sabatier Principle and Beyond It

The CO2 methanation reaction (also known as the Sabatier reaction) is an important route to convert waste carbon into greater value. In this study, kinetic modeling of the Sabatier reaction proceeding via the CO route has been presented by considering weak and strong chemisorption concepts rooted in electronic theory. Based on the single-route mechanism of the Sabatier reaction, the dependence of the reaction rate on the position of the catalyst Fermi level with respect to the antibonding states of the reagent (CO2) and the product (CH4) is demonstrated with the classic Sabatier volcano shape. The model was applied to explain experimental results of reaction rates for Ni- and Ru-based catalytic systems and to understand the origin of the enhancement of turnover frequencies established for dynamic catalysis.

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Publication Details

Journal
The Journal of Physical Chemistry C
Published
2025-04-09
DOI
https://doi.org/10.1021/acs.jpcc.5c00099
Citations
6
Primary Topic
Catalysts for Methane Reforming
Type
article
Field-Weighted Citation Impact
2.33

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article

Fermi-Based Kinetic Model for the Sabatier Reaction: Sabatier Principle and Beyond It

Rebecca Fushimi, Gregory S. Yablonsky, N. N. Turaeva
6 citations
The Journal of Physical Chemistry C
Catalysts for Methane Reforming
2.33
article

Fermi-Based Kinetic Model for the Sabatier Reaction: Sabatier Principle and Beyond It

Rebecca Fushimi, Gregory S. Yablonsky, N. N. Turaeva
article en
6 citations

Abstract

The CO2 methanation reaction (also known as the Sabatier reaction) is an important route to convert waste carbon into greater value. In this study, kinetic modeling of the Sabatier reaction proceeding via the CO route has been presented by considering weak and strong chemisorption concepts rooted in electronic theory. Based on the single-route mechanism of the Sabatier reaction, the dependence of the reaction rate on the position of the catalyst Fermi level with respect to the antibonding states of the reagent (CO2) and the product (CH4) is demonstrated with the classic Sabatier volcano shape. The model was applied to explain experimental results of reaction rates for Ni- and Ru-based catalytic systems and to understand the origin of the enhancement of turnover frequencies established for dynamic catalysis.

The Journal of Physical Chemistry CVol. 129(16)
Washington University in St. Louis (US), Idaho National Laboratory (US)
Idaho National Laboratory
Openalex Percentile: Top 12%
Catalysts for Methane Reforming
2.33
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