One notable aspect of the BERCO2 project was the exploration of formylmethanofuran dehydrogenase (Fmd) as an alternative enzyme for CO2 reduction. This research led us to explore the electrochemical behavior of Fmd when adsorbed onto electrodes, providing valuable insights into its performance. Our results and methodologies contribute to expanding the understanding of huge complex metalloenzyme behavior in bioelectrochemical systems.
As we look ahead to the final phase of the project, our objectives remain clear. We aim to further optimize the electrochemical processes involving Fmd and electrodes, with a focus on enhancing catalytic efficiency. This includes exploring different electrode materials and experimental conditions to maximize CO2 reduction rates. Additionally, we plan to continue our efforts in demonstrating bioelectrosynthesis, converting CO2 into formate under reductive potential.
The outcomes of our research hold significant potential for both socio-economic and wider societal impacts. By advancing the understanding of bioelectrochemical CO2 reduction, we contribute to the development of sustainable technologies for addressing climate change. Our work has implications for the creation of innovative solutions in renewable energy and carbon capture, with the potential to shape future industrial processes. Furthermore, our project fosters international collaboration and knowledge exchange, strengthening research networks and promoting scientific cooperation. Overall, our commitment to advancing sustainable CO2 reduction through bioelectrochemistry aligns with global goals for environmental stewardship and offers promise for a more sustainable future.
