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Keyphrases
Atomic Layer Deposition
100%
Fuel Cell
100%
Atomic Scale
22%
Fold Increase
22%
Power Density
11%
Deposition Rate
11%
Cell Components
11%
Performance Efficiency
11%
Cost-effectiveness
11%
Pt Nanoparticles
11%
Operational Lifetime
11%
Oxygen Reduction Reaction
11%
Long Lifespan
11%
Solid Oxide Fuel Cell
11%
Intermediate Temperature
11%
Ultrathin
11%
Large-scale Fabrication
11%
Processing Cost
11%
Proton Exchange Membrane Fuel Cell (PEMFC)
11%
Commercial Viability
11%
Corrosion Resistance
11%
Material Deposition
11%
Proton Transport
11%
Transport Efficiency
11%
Platinum Loading
11%
Catalyst Layer
11%
Gas Diffusion Layer
11%
Mass Activity
11%
Carbon Support Corrosion
11%
Industrial Adoption
11%
High Efficiency
11%
Deposition Methods
11%
Long-term Degradation
11%
Fuel Cell Electrodes
11%
Direct Methanol Fuel Cell
11%
Nanofabrication Techniques
11%
Methanol Crossover
11%
Material Compatibility
11%
Layer Design
11%
Catalyst Degradation
11%
Performance Durability
11%
Protonic Ceramic Fuel Cells
11%
Mass Transport Limitation
11%
Hybrid Deposition
11%
Electrolyte Balance
11%
Material Instability
11%
Nanostructured Anode
11%
Proton-conducting Electrolyte
11%
Nickel Solubility
11%
Ohmic Resistance
11%
Bipolar Plate
11%
Strontium Segregation
11%
Perovskite Cathode
11%
Major Challenges
11%
Transformative Potential
11%
Atomic Layer Deposition Process
11%
Atomic Layer Coating
11%
Resistance Instability
11%
Material Science
Catalyst
100%
Cathode
100%
Density
50%
Platinum
50%
Strontium
50%
Corrosion Resistance
50%
Proton-Exchange Membrane Fuel Cells
50%
Oxide Compound
50%
Nanoparticle
50%
Methanol Fuels
50%
Ceramic Fuel Cell
50%
Oxygen Reduction Reaction
50%
Chemical Engineering
Atomic Layer Deposition
100%
Methanol
18%
Oxide
9%
Deposition Rate
9%
Nanoparticle
9%
Chemical Kinetics Characteristics
9%
Perovskites
9%
Mass Transport Limitation
9%
Fuel Cell Membrane
9%
Platinum
9%