Highly efficient coproduction of electrical power and synthesis gas from biohythane using solid oxide fuel cell technology

Keyphrases

• Solid Oxide Fuel Cell 100%
• Synthesis Gas 100%
• Electrical Energy 100%
• Two-stage Anaerobic Digestion 100%
• Fuel Cell Technology 100%
• Biohythane 100%
• Highly Efficient 100%
• Biogas 66%
• Renewable Waste 66%
• Industrial Waste Gas 66%
• Anaerobic Digestion 33%
• Waste Resources 33%
• Energy Production 33%
• Quadrupole Mass Spectrometry 33%
• CH4-CO2 33%
• Greenhouse Gas Emissions 33%
• Giving up 33%
• Additional Value 33%
• Energy Yield 33%
• Alleviation 33%
• Waste Management 33%
• Vol% 33%
• Renewable Resources 33%
• Useful Chemicals 33%
• Efficient Energy 33%
• Air Pollutants 33%
• Electrochemical Measurements 33%
• Electrical Energy Yield 33%
• Fuel Cell Efficiency 33%
• Conversion Mechanism 33%
• Waste Gas Streams 33%
• Clean Energy Technology 33%
• Optimal Management 33%
• Biohythane Production 33%
• Fuel Conversion 33%
• Gaseous Mixture 33%
• Energy Chemistry 33%

Chemistry

• Solid Oxide Fuel Cell 100%
• Syngas 100%
• Anaerobic Digestion 40%
• Biogas 40%
• Industrial Waste 40%
• Two-Stage Anaerobic Digestion 40%
• Waste Gas 40%
• Carbon Dioxide 20%
• Methane 20%
• Greenhouse Gas Emission 20%
• Air Pollutant 20%
• Quadrupole Mass Spectroscopy 20%

Chemical Engineering

• Oxide 100%
• Anaerobic Digestion 66%
• Biogas 66%
• Two-Stage Anaerobic Digestion 66%
• Carbon Dioxide 33%
• Mass Spectrometry 33%
• Gas Stream 33%
• Methane 33%