Biomass waste upcycling by synergistic integration of gasification, wind energy, and power-to-fuel production for sustainable cities

Keyphrases

• Fuel Production 100%
• Wind Power 100%
• Gasification 100%
• Wind Energy 100%
• Biomass Waste 100%
• Sustainable Cities 100%
• Waste Upcycling 100%
• Synergistic Integration 100%
• Power-to-fuel 100%
• Operational Efficiency 66%
• Internal Rate of Return 66%
• Gasification Process 66%
• Exergy Efficiency 66%
• Life Cycle Assessment 66%
• Portable Water 66%
• Environmentally Friendly 33%
• Production System 33%
• Waste-based 33%
• Process Yield 33%
• Dimethyl Ether 33%
• Reverse Osmosis 33%
• Thermal Energy 33%
• Economic Analysis 33%
• Sustainable Urban Development 33%
• Water Production 33%
• Energy Utilization 33%
• Energy-exergy 33%
• Power Production 33%
• Overall Energy Efficiency 33%
• Waste Valorization 33%
• Wind Power Integration 33%
• Sustainability Analysis 33%
• Wind Power Utilization 33%
• Exergy-economic 33%
• Coal Power 33%
• Coal-based 33%
• Sustainable Energy Production 33%
• Surplus Electricity 33%
• Biomass Waste Valorization 33%
• Low Exergy 33%
• Dimethyl Ether Synthesis 33%
• Valorization Process 33%
• Reverse Osmosis Process 33%
• Electricity Potential 33%

Engineering

• Wind Power 100%
• Gasification 100%
• Fuel Production 100%
• Operational Efficiency 50%
• Internal Rate of Return 50%
• Exergy Efficiency 50%
• Life Cycle Assessment 50%
• Waste Valorization 50%
• Reverse Osmosis 50%
• Energy Production 25%
• Process Yield 25%
• Power Production 25%
• Surplus Electricity 25%
• Coal Energy 25%
• Conservation of Energy 25%
• Renewable Energy 25%
• Production System 25%
• Thermal Energy 25%

Chemical Engineering

• Gasification 100%
• Exergy 100%
• Reverse Osmosis 66%
• Renewable Energy 33%