首页|Molten carbonate electrolyzer for synthetic fuel generation

Molten carbonate electrolyzer for synthetic fuel generation

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In the transition to a CO2-neutral circular economy, innovative solutions for e-fuels production are imperative. This study delineates the potential of molten carbonate electrolysis, utilizing a reversible molten carbonate fuel cell technology, recognized for its efficacy in large-scale electrical power generation and CO2 capture, to steer a groundbreaking pathway to e-fuels production through molten carbon electrolyzer modality. By meticulously scrutinizing the rMCFC's electrochemical behavior under assorted thermal-flow parameters, we offer an incisive analysis of its operation in the electrolysis mode, thereby unveiling a promising avenue for high-efficiency gaseous fuel production through electrochemical reactions. The experimental study includes current-voltage assessments and electrochemical impedance spectroscopy analysis, providing an elucidative view of the cell's performance landscape. Moreover, SEM microscopy was employed in both pre- and post-mortem stages, facilitating a deep understanding of material degradation mechanisms. Our results not only enhance the contemporary comprehension of reversible cell operations but also delineate the pivotal operating parameters that are conducive to optimizing both fuel cell and electrolysis modes, signposting a highly promising route to efficient and sustainable e-fuels production for the future circular economy. This study stands as a critical milestone in harnessing the molten carbonate electrolysis technology as a corner stone on the roadmap towards achieving a high-efficiency e-fuels production ecosystem.

Molten carbonate fuel cellM olten carbonate electrolysisHydrogenSyngasElectrolysisCO2 utilizationExperimental investigationCELLMCFCPERFORMANCE

Martsinchyk, Aliaksandr、Szczesniak, Arkadiusz、Martsinchyk, Katsiaryna、Dybinski, Olaf、Cinti, Giovanni、Milewski, Jaroslaw、Shuhayeu, Pavel、Lazor, Monika、Cwieka, Karol、Skibinski, Jakub、Boczkowska, Anna

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Warsaw University of Technology Institute of Heat Engineering

University of Perugia Department of Engineering

Inst Power Engn||Inst Power Engn||Warsaw Univ Technol

Warsaw University of Technology Faculty of Chemical and Process Engineering

Warsaw University of Technology Faculty of Materials Science and Engineering

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2025

Journal of power sources

Journal of power sources

SCI
ISSN:0378-7753
年,卷(期):2025.628(Feb.1)
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