Carbon capture and utilisation technologies: A systematic analysis of innovative applications and supercritical CO2 viability strategies

The growing increase in global carbon dioxide emissions is partially due to cement production, which has been an international concern. In this context, carbon capture and utilisation (CCU) technologies present themselves as a possible solution capable of using CO 2 and other industrial waste and transforming them into value-added products.To explore the potential of this approach, this study conducted a systematic literature review of review articles published between 2018 and 2024, with the aim of systematising information on the materials, methods, and technologies associated with CCU in the construction sector. To this end, the properties and potential use as binders and/or aggregates of various materials were analysed. The available CCU technologies were compared, with particular attention given to supercritical carbonation, including a systematisation of innovative applications and feasibility strategies. In addition, the challenges associated with the implementation of these technologies were analysed.The results revealed a significant increase in publications on the subject in recent years. In addition, the potential of biocements was highlighted, particularly for the repair of cracks in concrete. Biochar and slag proved to be viable for use as aggregates or binders. The study also revealed the emerging potential of supercritical carbonation in comparison to accelerated carbonation, particularly due to its high CO 2 capture efficiency. On the other hand, several challenges were identified, including a limited understanding of the reaction mechanisms.Finally, the study proposes a set of recommendations to support the implementation of the low-carbon strategies discussed, which have the potential to transform the construction sector. • Mineral carbonation is a CCU technology that transforms industrial waste into value-added products. • Supercritical carbonation, compared to accelerated carbonation, has emerged as a promising technology, particularly due to its high CO₂ capture efficiency. • The development of new supercritical carbonation studies using different mixtures of industrial waste is necessary. • The commercial viability of CCU technologies depends on adequate funding and the development of support policies.

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Publication Details

Journal
Journal of CO2 Utilization
Published
2025-05-23
DOI
https://doi.org/10.1016/j.jcou.2025.103115
Citations
11
Primary Topic
Carbon Dioxide Capture Technologies
Type
article
Field-Weighted Citation Impact
7.85
Controls
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article

Carbon capture and utilisation technologies: A systematic analysis of innovative applications and supercritical CO2 viability strategies

Manuel Magrinho, João Castro-Gomes, Gisele Barata da Silva
11 citations
Journal of CO2 Utilization
Carbon Dioxide Capture Technologies
7.85
article

Carbon capture and utilisation technologies: A systematic analysis of innovative applications and supercritical CO2 viability strategies

Manuel Magrinho, João Castro-Gomes, Gisele Barata da Silva
article en
11 citations

Abstract

The growing increase in global carbon dioxide emissions is partially due to cement production, which has been an international concern. In this context, carbon capture and utilisation (CCU) technologies present themselves as a possible solution capable of using CO 2 and other industrial waste and transforming them into value-added products.To explore the potential of this approach, this study conducted a systematic literature review of review articles published between 2018 and 2024, with the aim of systematising information on the materials, methods, and technologies associated with CCU in the construction sector. To this end, the properties and potential use as binders and/or aggregates of various materials were analysed. The available CCU technologies were compared, with particular attention given to supercritical carbonation, including a systematisation of innovative applications and feasibility strategies. In addition, the challenges associated with the implementation of these technologies were analysed.The results revealed a significant increase in publications on the subject in recent years. In addition, the potential of biocements was highlighted, particularly for the repair of cracks in concrete. Biochar and slag proved to be viable for use as aggregates or binders. The study also revealed the emerging potential of supercritical carbonation in comparison to accelerated carbonation, particularly due to its high CO 2 capture efficiency. On the other hand, several challenges were identified, including a limited understanding of the reaction mechanisms.Finally, the study proposes a set of recommendations to support the implementation of the low-carbon strategies discussed, which have the potential to transform the construction sector. • Mineral carbonation is a CCU technology that transforms industrial waste into value-added products. • Supercritical carbonation, compared to accelerated carbonation, has emerged as a promising technology, particularly due to its high CO₂ capture efficiency. • The development of new supercritical carbonation studies using different mixtures of industrial waste is necessary. • The commercial viability of CCU technologies depends on adequate funding and the development of support policies.

Journal of CO2 UtilizationVol. 97
University of Beira Interior (PT)
Industry, innovation and infrastructure
Openalex Percentile: Top 2%
Carbon Dioxide Capture Technologies
7.85
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