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The theoretical study of Rh single atom catalysts decorated C3N monolayer with N vacancy for CO oxidations
by
Gao, Xinyang
, Zhang, Yanxing
in
Approximation
/ Carbon
/ Carbon monoxide
/ Characterization and Evaluation of Materials
/ Chemical reactions
/ Condensed Matter Physics
/ Constraining
/ Diffusion barriers
/ Electrons
/ Energy
/ First principles
/ Fuel cells
/ Graphene
/ Low temperature
/ Machines
/ Manufacturing
/ Monolayers
/ Nanotechnology
/ Optical and Electronic Materials
/ Oxidation
/ Physics
/ Physics and Astronomy
/ Poisoning
/ Processes
/ Rhodium
/ Room temperature
/ Simulation
/ Single atom catalysts
/ Surfaces and Interfaces
/ Thin Films
2023
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The theoretical study of Rh single atom catalysts decorated C3N monolayer with N vacancy for CO oxidations
by
Gao, Xinyang
, Zhang, Yanxing
in
Approximation
/ Carbon
/ Carbon monoxide
/ Characterization and Evaluation of Materials
/ Chemical reactions
/ Condensed Matter Physics
/ Constraining
/ Diffusion barriers
/ Electrons
/ Energy
/ First principles
/ Fuel cells
/ Graphene
/ Low temperature
/ Machines
/ Manufacturing
/ Monolayers
/ Nanotechnology
/ Optical and Electronic Materials
/ Oxidation
/ Physics
/ Physics and Astronomy
/ Poisoning
/ Processes
/ Rhodium
/ Room temperature
/ Simulation
/ Single atom catalysts
/ Surfaces and Interfaces
/ Thin Films
2023
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The theoretical study of Rh single atom catalysts decorated C3N monolayer with N vacancy for CO oxidations
by
Gao, Xinyang
, Zhang, Yanxing
in
Approximation
/ Carbon
/ Carbon monoxide
/ Characterization and Evaluation of Materials
/ Chemical reactions
/ Condensed Matter Physics
/ Constraining
/ Diffusion barriers
/ Electrons
/ Energy
/ First principles
/ Fuel cells
/ Graphene
/ Low temperature
/ Machines
/ Manufacturing
/ Monolayers
/ Nanotechnology
/ Optical and Electronic Materials
/ Oxidation
/ Physics
/ Physics and Astronomy
/ Poisoning
/ Processes
/ Rhodium
/ Room temperature
/ Simulation
/ Single atom catalysts
/ Surfaces and Interfaces
/ Thin Films
2023
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The theoretical study of Rh single atom catalysts decorated C3N monolayer with N vacancy for CO oxidations
Journal Article
The theoretical study of Rh single atom catalysts decorated C3N monolayer with N vacancy for CO oxidations
2023
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Overview
In this work, the single Rh atom anchored by N vacancy of C
3
N monolayer for CO oxidations has been studied by using first-principles calculations. The stability for a single Rh atom in N vacancy of C
3
N monolayer is detailed investigated. The sizeable binding energy and diffusion barrier of the Rh atom in the N vacancy and the ab initial molecule dynamic simulations at 400 K all verify that the Rh is stable at the N vacancy of the C
3
N monolayer. We also have examined the bi-molecule Eley–Rideal (ER) and Langmuir–Hinshelwood (LH) and the tri-molecule LH mechanisms on the Rh @ C
3
N. It is found that the barriers for the rate-limiting step for bi-molecule ER and LH are so significant (1.35, 1.15 eV), while for the tri-molecule LH mechanism, the barrier of the rate-limiting step is only 0.49 eV, which means the tri-molecule LH mechanism is more likely to occur at room temperature on the Rh @ C
3
N. Thus, our results will shed light on the future design for low-temperature CO oxidation using single-atom catalysts.
Publisher
Springer Berlin Heidelberg,Springer Nature B.V
Subject
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