Biological methanation of CO2 in a novel biofilm plug-flow reactor: A high rate and low parasitic energy process

Keyphrases

• Biofilm 100%
• Energy Processes 100%
• Low Parasitics 100%
• Plug Flow Reactor 100%
• Parasitic Energy 100%
• CO2 Methanation 100%
• Biological Methanation 100%
• Evolutionary Rate 33%
• Conversion Efficiency 33%
• Mesophilic 33%
• Gasses 33%
• Methane 33%
• Microbial Culture 33%
• Agitation 33%
• Biogas Upgrading 33%
• Energy Saving 33%
• Reactor Systems 33%
• Gas Phase 33%
• Biofilm Formation 33%
• CO2 Conversion 33%
• Reaction Space 33%
• Renewable Power 33%
• Gas Transfer 33%
• Total Gas 33%
• Biotechnology Development 33%
• Modeling Parameters 33%
• Unconventional Gas 33%
• Biomethanation 33%
• Gas Residence Time 33%
• Power Consumption 33%
• Plug Flow 33%
• Gas Throughput 33%
• Low-carbon Products 33%
• C1 Gas 33%
• Fixed-film 33%
• Power Storage System 33%
• Gas-liquid Contactor 33%
• Power Conversion System 33%
• Metabolic Activity 33%
• CH4 Conversion 33%
• Gas Diffusion 33%
• Flow Design 33%

Engineering

• Methane 100%
• Plug Flow Reactor 100%
• Methanation 100%
• Conversion Efficiency 33%
• Gas-Phase 33%
• Microbial 33%
• Biogas 33%
• Renewables 33%
• Reactor System 33%
• Plug Flow 33%
• Electric Power Utilization 33%
• Storage System 33%
• Biofilm Formation 33%
• Liquid Gas 33%
• Gaseous Diffusion 33%
• Gas Throughput 33%
• Power Conversion System 33%
• Contactor 33%
• Input Rate 33%
• Metabolic Activity 33%

Chemical Engineering

• Carbon Dioxide 100%
• Methanation 100%
• Biogas 50%
• Film 50%
• Gas Residence Time 50%
• CH4 Conversion 50%