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Ternary PtIrNi Catalysts for Efficient Electrochemical Ammonia Oxidation
Yi Li
, Xing Li
, Hemanth Somarajan Pillai
, Judith Lattimer
, Nadia Mohd Adli
, Stavros Karakalos
, Mengjie Chen
, Lin Guo
, Hui Xu
, Juan Yang
, Dong Su
, Hongliang Xin
, Gang Wu
Department of Energy, Environmental & Chemical Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
217
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Scopus citations
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Keyphrases
Ammonia Oxidation
100%
Electrochemical Ammonia Oxidation
100%
Reversible Hydrogen Electrode
60%
Silica
40%
Pt-Ir
40%
Alloy Nanoparticles
40%
Low Onset Potential
40%
Active Sites
20%
High Temperature
20%
Effective Alternative
20%
Catalytic Activity
20%
Room Temperature
20%
D-orbital
20%
Peak Current Density
20%
Ammonia
20%
Synthesis Methods
20%
Density Functional Calculations
20%
Density of States
20%
Assisted Synthesis
20%
Increased Performance
20%
Binary Composites
20%
Electrical Conductivity
20%
Dehydrogenation
20%
Surface Sites
20%
Alkaline Media
20%
Potential Density
20%
Well-dispersed
20%
Functionalized Carbon Nanotubes
20%
Reaction Catalyst
20%
Reaction Activity
20%
Fuel Cell Applications
20%
Direct Ammonia Fuel Cell
20%
Nanoparticle Catalysts
20%
Constant Potential
20%
Onset Potential
20%
MWCNTs-COOH
20%
Carboxyl-functionalized
20%
NH3 Concentration
20%
Sonochemistry
20%
Composite Support
20%
High Peak Current
20%
Low-temperature Fuel Cells
20%
Porous SiO2
20%
Porous Silicon Oxide
20%
Direct Ammonia Oxidation
20%
Operation Temperature
20%
Chemistry
Oxidation Reaction
100%
Nanoparticle
60%
electrode
60%
Porosity
40%
Ammonia
40%
Statistical Ensemble
20%
Ambient Reaction Temperature
20%
Density of State
20%
Dehydrogenation
20%
Fuel Cell
20%
Density Functional Theory
20%
Catalyst Activity
20%
Electrical Conductivity
20%
Carbon Nanotube
20%
Current Density
20%
Silicon Dioxide
20%
Fuel Cell Applications
20%
Material Science
Density
100%
Alloy Nanoparticle
66%
Nanoparticle
33%
Silicon Dioxide
33%
Carbon Nanotube
33%
Electrical Conductivity
33%
Catalyst Activity
33%
Porous Silicon
33%
Dehydrogenation
33%
Surface (Surface Science)
33%
Binary Composite
33%
Chemical Engineering
Nanoparticle
100%
Carbon Nanotube
33%
Dehydrogenation
33%
Silicon Dioxide
33%