This paper focuses on the study of the environmental and economic feasibility of the formic acid (FA) synthesis by means of electrochemical reduction (ER) of carbon dioxide (CO2) with special emphasis on the cathode lifetime. The study has used a Life Cycle Assessment (LCA) approach in order to obtain the environmental indicators as Global Warming Potential (GWP) and Abiotic Depletion (ADP) (both elements and fossil resources ADPs). The values of the indicators obtained in the assessment were representative of the Carbon Footprint (CF) and resource savings of this fabrication process. The commercial/conventional process for FA production was used as benchmark. The novelty of the study is the incorporation into the Life Cycle Inventory (LCI)...
CO2-based production technologies unveil the possibility of sustainable production in the chemical i...
Summary: The electrochemical reduction of CO2 has emerged as a promising alternative to traditional ...
Carbon capture and utilization (CCU) technologies support future energy and climate transition goals...
Carbon dioxide (CO2) utilization alternatives for manufacturing formic acid (FA) such as electrochem...
In the last decade, the electrochemical conversion of CO 2 to formic acid, FA, using Sn‐based catho...
Carbon dioxide (CO2) utilization alternatives for manufacturing formic acid (FA) such as electrochem...
Low carbon options for the chemical industry include switching from fossil to renewable energy, adop...
To date, the decarbonization of the world economy and storage and production of energy from alternat...
The electrochemical conversion of excess CO2 into valuable chemicals, such as carbon monoxide (CO) a...
Due to rising concerns about climate change, a lot of research is currently underway with respect to...
The future of carbon dioxide utilisation (CDU) processes, depend on (i) the future demand of synthes...
AbstractThe future of carbon dioxide utilisation (CDU) processes, depend on (i) the future demand of...
Renewable-driven CO2 recycling plants (CO2RPs) to produce chemicals have a certain role to play in t...
The future of carbon capture and utilisation (CCU) processes, depend on (i) the future demand of sy...
Carbon capture and utilisation provide a means to mitigate climate change caused by anthropogenic gr...
CO2-based production technologies unveil the possibility of sustainable production in the chemical i...
Summary: The electrochemical reduction of CO2 has emerged as a promising alternative to traditional ...
Carbon capture and utilization (CCU) technologies support future energy and climate transition goals...
Carbon dioxide (CO2) utilization alternatives for manufacturing formic acid (FA) such as electrochem...
In the last decade, the electrochemical conversion of CO 2 to formic acid, FA, using Sn‐based catho...
Carbon dioxide (CO2) utilization alternatives for manufacturing formic acid (FA) such as electrochem...
Low carbon options for the chemical industry include switching from fossil to renewable energy, adop...
To date, the decarbonization of the world economy and storage and production of energy from alternat...
The electrochemical conversion of excess CO2 into valuable chemicals, such as carbon monoxide (CO) a...
Due to rising concerns about climate change, a lot of research is currently underway with respect to...
The future of carbon dioxide utilisation (CDU) processes, depend on (i) the future demand of synthes...
AbstractThe future of carbon dioxide utilisation (CDU) processes, depend on (i) the future demand of...
Renewable-driven CO2 recycling plants (CO2RPs) to produce chemicals have a certain role to play in t...
The future of carbon capture and utilisation (CCU) processes, depend on (i) the future demand of sy...
Carbon capture and utilisation provide a means to mitigate climate change caused by anthropogenic gr...
CO2-based production technologies unveil the possibility of sustainable production in the chemical i...
Summary: The electrochemical reduction of CO2 has emerged as a promising alternative to traditional ...
Carbon capture and utilization (CCU) technologies support future energy and climate transition goals...