Thermodynamic, economic, and emissions assessment of integrated power to methanol concept with membrane-based biogas up-gradation and plasma electrolysis

Keyphrases

• Biogas 100%
• Carbon Dioxide 100%
• Plasma Electrolytic Oxidation 100%
• Economic Evaluation 100%
• Membrane-based 100%
• Thermodynamic Assessment 100%
• Power-to-methanol 100%
• Integrated Power 100%
• Upgradation 100%
• Emission Evaluation 100%
• Methanol 66%
• Membrane Separation 66%
• Energy Sources 33%
• Global Warming 33%
• Exergy Analysis 33%
• Plasma Reactor 33%
• Reactor 33%
• Energy Saving 33%
• Methane 33%
• Heater 33%
• High Purity 33%
• Ambient Conditions 33%
• Methanol Production 33%
• Carbon Emissions 33%
• Wind Power 33%
• High Recovery 33%
• Separator 33%
• Intermittency 33%
• Renewable Electricity 33%
• Valuable Products 33%
• Carbon Neutrality 33%
• Water Splitting 33%
• Conceptual Study 33%
• Aspen Plus 33%
• Pure Methanol 33%
• Mass Yield 33%
• Heat Integration 33%
• Carbon Dioxide Utilization 33%
• Water Electrolysis Technologies 33%
• Win-win 33%
• Direct Air Capture 33%
• Hydrogen Production Process 33%
• Zero Carbon Emission 33%
• Production Challenges 33%
• Operational Challenges 33%

Engineering

• Biogas 100%
• Mols 66%
• Membranes Separation 66%
• Global Warming 33%
• Methane 33%
• Plasma Reactor 33%
• Energy Source 33%
• Ambient Condition 33%
• Production of Methanol 33%
• Wind Power 33%
• Electrolysis Technology 33%
• Base Case 33%
• Pure Methanol 33%
• Water Splitting 33%
• Heat Integration 33%
• Detailed Exergy Analysis 33%
• Water Electrolysis 33%
• Hydrogen Production Process 33%
• Renewable Energy 33%

Chemical Engineering

• Methanol 100%
• Biogas 100%
• Carbon Dioxide 66%
• Membranes Separation 33%
• Hydrogen Production 16%
• Production of Methanol 16%
• Exergy 16%
• Heat Integration 16%