Direct Hydrocarbon Fuel Cells

Keyphrases

• Solid Oxide Fuel Cell 100%
• Direct Hydrocarbon 100%
• Hydrocarbon Fuel Cells 100%
• Methane 66%
• Natural Gas 66%
• Manganese 66%
• Lanthanum 66%
• Methane Gas 66%
• Power Density 66%
• Strontium 66%
• Hydrocarbon Fuel 66%
• Hydrocarbon Feedstock 66%
• System Design 33%
• Direct Use 33%
• Operational Efficiency 33%
• Operating Conditions 33%
• Fuel Cell 33%
• Unique Design 33%
• System Process 33%
• Synthesis Design 33%
• Cell Processes 33%
• Low Volume 33%
• Cellular Oxidation 33%
• US Patents 33%
• Synthesis Conditions 33%
• Current Density 33%
• Ethane 33%
• Hydrocarbon Oxidation 33%
• Yttria-stabilized Zirconia 33%
• Carbon Deposition 33%
• YSZ Electrolyte 33%
• Economic Savings 33%
• Anode-supported Solid Oxide Fuel Cell 33%
• Reduced Volume 33%
• Design Configuration 33%
• Coke Formation 33%
• Clean Energy Generation 33%
• Construction Efficiency 33%
• Hydrocarbon Conversion 33%
• Stable Currents 33%
• Improved Mechanical Strength 33%
• Fuel Conversion 33%
• SEM Analysis 33%
• Anode Catalyst 33%
• Anode Carbon 33%
• Stack Configuration 33%
• Operational Economy 33%
• Unit Efficiency 33%
• EDX Analysis 33%
• Design Condition 33%
• Volume Weight 33%
• Direct Fuel Cell 33%
• Stable Operation 33%
• Solid Oxide Fuel Cell System 33%
• Electrical Losses 33%
• Fuel Cell Design 33%
• Component Mode Synthesis 33%

Engineering

• Fossil Fuel 100%
• Fuel Cell 100%
• Methane 100%
• Solid Oxide Fuel Cells 75%
• Power Density 50%
• Natural Gas 50%
• Design System 25%
• Yttria-Stabilised Zirconia 25%
• Carbon Deposition 25%
• Power Generation 25%
• Process System 25%
• Economic Potential 25%
• Prior Art 25%
• Solid Oxide Fuel Cell Systems 25%
• Anode Carbon 25%
• Solid Oxide Fuel Cells Design 25%
• Operational Efficiency 25%
• Electrical Loss 25%
• Internals 25%
• Limitations 25%

Chemical Engineering

• Lanthanum 100%
• Yttrium Oxide 50%