Closing the Carbon Cycle in Plasma‐Based CO<sub>2</sub> Splitting – A Techno‐Economic Perspective

Abstract This techno‐economic analysis examines the impact of CO₂ capture energy and capital costs on plasma‐based power‐to‐liquid (PtL) systems, identifying strategies to minimize the net production costs (NPC) for synthetic fuels. Three future development scenarios were defined. One, focusing on high efficiencies, reaches NPC of 2.9 EUR L −1 of marine diesel. The approach of prioritizing high CO 2 conversion results in costs of 3.7 EUR L −1 . A more balanced approach between efficiency and conversion achieves an NPC of 2.6 EUR L −1 . Further NPC reductions are possible by sourcing lower‐cost renewable electricity, reducing the NPC further to a minimum of 1.6 EUR L −1 . These findings underscore that direct air capture (DAC) cost‐efficiency and process integration improvements are essential for scalable, economically viable CO₂ utilization in PtL processes.

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Publication Details

Journal
Chemie Ingenieur Technik
Published
2025-04-15
DOI
https://doi.org/10.1002/cite.202400143
Primary Topic
Plasma Applications and Diagnostics
Type
article
Field-Weighted Citation Impact
0.00

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article

Closing the Carbon Cycle in Plasma‐Based CO2 Splitting – A Techno‐Economic Perspective

Paul Rößner, Samuel Jaro Kaufmann, Kai Peter Birke
Chemie Ingenieur Technik
Plasma Applications and Diagnostics
article

Closing the Carbon Cycle in Plasma‐Based CO2 Splitting – A Techno‐Economic Perspective

Paul Rößner, Samuel Jaro Kaufmann, Kai Peter Birke
article en

Abstract

Abstract This techno‐economic analysis examines the impact of CO₂ capture energy and capital costs on plasma‐based power‐to‐liquid (PtL) systems, identifying strategies to minimize the net production costs (NPC) for synthetic fuels. Three future development scenarios were defined. One, focusing on high efficiencies, reaches NPC of 2.9 EUR L −1 of marine diesel. The approach of prioritizing high CO 2 conversion results in costs of 3.7 EUR L −1 . A more balanced approach between efficiency and conversion achieves an NPC of 2.6 EUR L −1 . Further NPC reductions are possible by sourcing lower‐cost renewable electricity, reducing the NPC further to a minimum of 1.6 EUR L −1 . These findings underscore that direct air capture (DAC) cost‐efficiency and process integration improvements are essential for scalable, economically viable CO₂ utilization in PtL processes.

Chemie Ingenieur TechnikVol. 97(5)
University of Stuttgart (DE)
Vector Stiftung
Openalex Percentile: Top 88%
Plasma Applications and Diagnostics
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Closing the Carbon Cycle in Plasma‐Based CO<sub>2</sub> Splitting – A Techno‐Economic Perspective — Paul Rößner, Samuel Jaro Kaufmann, et al. · Chemie Ingenieur Technik (2025) | TGRS Research Map | TGRS