ACS Energy Letters · 2020 · 135 citations · 34 references
Natural SciencesChemical EngineeringChemistryCatalysisElectrochemistryPhotosynthesisCarbon CaptureCarbon Dioxide RemovalPhotosynthetic Energy ConversionArtificial PhotosynthesisCarbon Capture Process DesignCarbon DioxideCarbon Dioxide CaptureCarbon Dioxide ElectrolysisCarbon Dioxide ElectroreductionCatalytic Energy ConversionElectrochemical Carbon Dioxide Valorization
Designing a scalable system to capture CO₂ from the air and convert it into valuable chemicals, fuels, and materials could be transformational for mitigating climate change. Climate models predict that negative greenhouse gas emissions will be required by the year 2050 in order to stay below a 2 °C change in global temperature. The processes of CO₂ capture, CO₂ conversion, and finally product separation all require significant energy inputs; devising a system that simultaneously minimizes the energy required for all steps is an important challenge. To date, a variety of prototype or pilot-level CO₂ capture and/or conversion systems have been designed and built targeting the individual objectives of either capture or conversion. One approach has focused on CO₂ removal from the atmosphere and storage of pure pressurized CO₂. Other efforts have concentrated on CO₂ conversion processes, such as electrochemical reduction or fermentation. Only a few concepts or analyses have been developed for complete end-to-end processes that perform both CO₂ capture and transformation.
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A Process for Capturing CO2 from the Atmosphere
David W. Keith, Geoffrey Holmes, David St. Angelo et al. · Joule · 2018 · 1.8K citations · Full text
Natural Sciences, Environmental Engineering, Environmental Sciences +13
Cynthia A. Rice, Su Ha, Richard I. Masel et al. · Journal of Power Sources · 2002 · 820 citations
Technical photosynthesis involving CO2 electrolysis and fermentation
Thomas Haas, Ralf Krause, Rainer Weber et al. · Nature Catalysis · 2018 · 641 citations