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Understanding cation effects in electrochemical CO
2
reduction
Stefan Ringe
*
, Ezra L. Clark
, Joaquin Resasco
, Amber Walton
, Brian Seger
, Alexis T. Bell
, Karen Chan
*
Corresponding author for this work
Research output
:
Contribution to journal
›
Article
›
peer-review
753
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Keyphrases
Electrochemical CO2 Reduction
100%
Cation Effect
100%
Interfacial Electric Field
100%
Double-layer Capacitance
66%
Surface Charge
33%
Solid-liquid Interface
33%
Process-based
33%
Design Principles
33%
Field Effect
33%
Electrochemical Process
33%
Multiscale Modeling
33%
C2 Production
33%
Cation Size
33%
Reaction Intermediates
33%
Field Sensitivity
33%
Product Selectivity
33%
Ion Specificity
33%
Ion Size
33%
Charge Property
33%
Interface Engineering
33%
Ab Initio Simulations
33%
Potential of Zero Charge
33%
Critical Reaction
33%
Modified Poisson-Boltzmann Theory
33%
Au(111) Single Crystal
33%
Promising Techniques
33%
Vibrational Signatures
33%
Engineering
Carbon Dioxide Reduction
100%
Electric Field
100%
Double Layer
66%
Experimental Investigation
33%
Engineering
33%
Boltzmann Equation
33%
Multiscale Modeling
33%
Theoretical Investigation
33%
Electrochemical Process
33%
Desired Product
33%
Experimental Trend
33%
Carbon Dioxide
33%
Material Science
Capacitance
100%
Electrochemical CO2 reduction
100%
Carbon Dioxide
50%
Liquid Interface
50%
Electrochemical Reaction
50%
Design Principle
50%
Ab Initio Simulation
50%
Multi-Scale Modeling
50%
Single Crystal
50%
Chemistry
Electric Field
100%
Carbon Dioxide Reduction
100%
Cation
100%
Field Effect
33%
Single Crystalline Solid
33%
Reaction Intermediate
33%
Electrochemical Reduction
33%
Carbon Dioxide
33%
Boltzmann Equation
33%
Liquid-Solid Interface
33%
Chemical Engineering
Electrochemical CO2 reduction
100%
Interfacial electric field
100%
Carbon Dioxide
33%