Simulation and techno-economic analysis of a power-to-hydrogen process for oxyfuel glass melting

Keyphrases

• Techno-economic Analysis 100%
• Oxy-fuel 100%
• Glass Melting 100%
• Power-to-hydrogen 100%
• Renewable Energy 66%
• Combustion 66%
• Glass Industry 66%
• Power Production 33%
• Simulation Approach 33%
• Production System 33%
• High CO2 33%
• Energy Systems 33%
• Scale Parameter 33%
• Greenhouse Gas Emissions 33%
• Economic Optimization 33%
• Industry Sector 33%
• Economic Analysis 33%
• Carbon Dioxide Emissions 33%
• Economic Parameters 33%
• Adiabatic Flame Temperature 33%
• Plant Performance 33%
• Process Stability 33%
• Heat Capacity 33%
• Energy-intensive Industry 33%
• Temperature Effectiveness 33%
• Process Economics 33%
• Climate Protection 33%
• Plant Capacity 33%
• Hydrogen-air Combustion 33%
• Pure Hydrogen 33%
• Specific Energy Demand 33%
• Melting Properties 33%
• CO2 Abatement Cost 33%
• Protection Target 33%
• Flow Ratio 33%
• Process Scale-up 33%
• Glass Quality 33%
• Glass Melting Process 33%
• Energy Park 33%
• Hydrogen Plant 33%
• Step-by-step Integration 33%
• CO2eq 33%
• Emission Processes 33%

Engineering

• Oxyfuel 100%
• Melting Point 100%
• Power Production 50%
• Renewable Energy Source 50%
• Energy Systems 50%
• Industry Sector 50%
• Melting Process 50%
• Energy-Intensive Industry 50%
• Scaling Process 50%
• Heat Capacity 50%
• Adiabatic Flame Temperature 50%
• Production System 50%
• Renewable Energy 50%
• Greenhouse Gas 50%

Chemical Engineering

• Carbon Dioxide 100%
• Techno-economic Analysis 100%
• Specific Heat 33%
• Pure Hydrogen 33%