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Review on candle soot carbon for water splitting applications
Edsel Xavier Dias
,
Chung Jen Tseng
, Kan Rong Lee
, Srinivasulu Maddasani
, Shailendra Kumar Tiwari
, Mallikarjun Bhavanari
Department of Mechanical Engineering
Research output
:
Chapter in Book/Report/Conference proceeding
›
Chapter
›
peer-review
Overview
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Keyphrases
Water Splitting
100%
Candle Soot
100%
Nickel Foam
28%
Hydrogen Evolution Reaction
28%
Fe-P
28%
Flat Substrate
28%
High Efficiency
14%
Porosity
14%
Molybdenite
14%
XRD Analysis
14%
Carbon Structure
14%
Adverse Effects
14%
Global Warming
14%
RuO2
14%
Charge Transfer
14%
Electrochemical Performance
14%
Water Adsorption
14%
High Activity
14%
Electrocatalyst
14%
Metal Catalyst
14%
Hydrogen Gas
14%
Energy Materials
14%
Energy Applications
14%
Electrocatalytic Reaction
14%
Conventional Techniques
14%
Chain-like
14%
Carbon Nanoparticles
14%
Amorphous Carbon
14%
High Conductivity
14%
Synthetic Approaches
14%
Triple Phase Boundary
14%
Adsorption Phase
14%
Doped Catalyst
14%
Electrolysis
14%
Hydrogen Energy
14%
Catalyst Support
14%
Advanced Research
14%
Efficient Catalyst
14%
IrO2
14%
Supported Catalysts
14%
Carbon Conversion
14%
Environmentally Benign
14%
Electrochemical Water Splitting
14%
Foam Catalyst
14%
Carbon Application
14%
Layered Carbon
14%
Carbon Electrocatalyst
14%
Catalyst Synthesis
14%
Conventional Energy Sources
14%
Engineering
Water Splitting
100%
Electrocatalysts
100%
Hydrogen Evolution Reaction
66%
Flat Substrate
66%
Porosity
66%
Global Warming
33%
Hydrogen Energy
33%
Hydrogen Gas
33%
Energy Source
33%
X-Ray Diffraction Analysis
33%
Conventional Technique
33%
Phase Boundary
33%
Energy Application
33%
Amorphous Carbon
33%
Electrolyzer
33%
Conventional Energy
33%
Molybdenum Disulfide
33%
Carbon Nanoparticle
33%
Material Science
Water Splitting
100%
Electrocatalysts
100%
Hydrogen Evolution
66%
Nanoparticle
33%
X-Ray Diffraction
33%
Amorphous Carbon
33%
Catalyst Support
33%
Phase Interface
33%
Chemical Engineering
Nanoparticle
100%
Carbon Structure
100%
Doped Catalyst
100%