Rohit Srivastava is a Senior Assistant Professor at the Department of Petroleum Engineering, Pandit Deendayal Energy University, Gandhinagar, India. His research focuses on green hydrogen and carbon dioxide reduction into green fuels.Bishnu Bastakoti is an Associate Professor at North Carolina Agricultural and Technical State University, USA. He has published over 100 peer-reviewed articles. He is working on a broad design challenge to control various structural properties, such as porosity, crystallinity, and pore size, in porous inorganic nanomaterials. He is especially interested in using highly porous nanostructured materials in catalysis and energy conversion.

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• 1. Introduction2. Electrochemical reduction of CO23. Photochemical reduction of CO24. Enzymatic reduction of CO25. Artificial photosynthesis: Sunlight, Water and CO2 into fuels6. Advance pervoskite-based catalysis for CO2 conversion7. Phosphorene based catalyst for CO2 conversion8. Polymer based-catalyst for CO2 conversion.9. Transition metal-based single atom catalyst for CO2 conversion10. Blue-titania catalyst for CO2 conversion11. Advance carbon-based nanomaterial for CO2 conversion12. Mxene-Transition metal compound sulphide and phosphide; hetero nanostructures for CO2 conversion13. Semiconductors materials for CO2 conversion14. Photobiological CO2 reduction: Introduction and fundamental concept15. Technoeconomic analysis of electrochemical and photoelectrochemical reduction of CO216. Scalability aspects and real-world implementation of electrochemical and photoelectrochemical processes for CO2 reduction

Rohit Srivastava is a Senior Assistant Professor at the Department of Petroleum Engineering, Pandit Deendayal Energy University, Gandhinagar, India. His research focuses on green hydrogen and carbon dioxide reduction into green fuels.Bishnu Bastakoti is an Associate Professor at North Carolina Agricultural and Technical State University, USA. He has published over 100 peer-reviewed articles. He is working on a broad design challenge to control various structural properties, such as porosity, crystallinity, and pore size, in porous inorganic nanomaterials. He is especially interested in using highly porous nanostructured materials in catalysis and energy conversion.

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• 1. Introduction2. Electrochemical reduction of CO23. Photochemical reduction of CO24. Enzymatic reduction of CO25. Artificial photosynthesis: Sunlight, Water and CO2 into fuels6. Advance pervoskite-based catalysis for CO2 conversion7. Phosphorene based catalyst for CO2 conversion8. Polymer based-catalyst for CO2 conversion.9. Transition metal-based single atom catalyst for CO2 conversion10. Blue-titania catalyst for CO2 conversion11. Advance carbon-based nanomaterial for CO2 conversion12. Mxene-Transition metal compound sulphide and phosphide; hetero nanostructures for CO2 conversion13. Semiconductors materials for CO2 conversion14. Photobiological CO2 reduction: Introduction and fundamental concept15. Technoeconomic analysis of electrochemical and photoelectrochemical reduction of CO216. Scalability aspects and real-world implementation of electrochemical and photoelectrochemical processes for CO2 reduction

Rohit Srivastava is a Senior Assistant Professor at the Department of Petroleum Engineering, Pandit Deendayal Energy University, Gandhinagar, India. His research focuses on green hydrogen and carbon dioxide reduction into green fuels.Bishnu Bastakoti is an Associate Professor at North Carolina Agricultural and Technical State University, USA. He has published over 100 peer-reviewed articles. He is working on a broad design challenge to control various structural properties, such as porosity, crystallinity, and pore size, in porous inorganic nanomaterials. He is especially interested in using highly porous nanostructured materials in catalysis and energy conversion.

Select Guide Rating

• 1. Introduction2. Electrochemical reduction of CO23. Photochemical reduction of CO24. Enzymatic reduction of CO25. Artificial photosynthesis: Sunlight, Water and CO2 into fuels6. Advance pervoskite-based catalysis for CO2 conversion7. Phosphorene based catalyst for CO2 conversion8. Polymer based-catalyst for CO2 conversion.9. Transition metal-based single atom catalyst for CO2 conversion10. Blue-titania catalyst for CO2 conversion11. Advance carbon-based nanomaterial for CO2 conversion12. Mxene-Transition metal compound sulphide and phosphide; hetero nanostructures for CO2 conversion13. Semiconductors materials for CO2 conversion14. Photobiological CO2 reduction: Introduction and fundamental concept15. Technoeconomic analysis of electrochemical and photoelectrochemical reduction of CO216. Scalability aspects and real-world implementation of electrochemical and photoelectrochemical processes for CO2 reduction