Risks of cement and rock-cement-metal interface degradation in geological carbon sequestration reservoirs: Mechanisms, influencing factors and mitigation measures

Geologic carbon sequestration (GCS), a technique for capturing and storing CO 2 in deep geologic formations, is considered essential to reduce the alarmingly high carbon emissions causing global warming and climate change. Non-producing oil and gas reservoirs are among the most appealing locations for GCS, though the success of the strategy relies on the long-term integrity of the reservoirs. The degradation of the main reservoir structural and sealing materials including cement and casing steel under the acidic conditions along with potential fluid leakage risks, remains a major concern. This work provides a comprehensive review on the degradation mechanisms affecting cement and the interfaces between cement and casing/formation rock under GCS conditions. The mechanisms and relevant investigation methods for the degradation, both experimental and numerical, are discussed in detail. A special focus is placed on the important influencing factors, especially concerning the exposure conditions inside of the reservoirs, including temperature, pressure, advection conditions, brines as well as contaminants in the stored CO 2 , etc. In addition, representative mitigation strategies for the degradation of cement and the rock-cement-metal interfaces under GCS conditions are summarised. This review aims to highlight important research progress on the subject and identify critical research gaps and challenges for future studies.

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Publication Details

Journal
Carbon Capture Science & Technology
Published
2025-03-27
DOI
https://doi.org/10.1016/j.ccst.2025.100419
Citations
4
Primary Topic
Drilling and Well Engineering
Type
article
Field-Weighted Citation Impact
4.58
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article

Risks of cement and rock-cement-metal interface degradation in geological carbon sequestration reservoirs: Mechanisms, influencing factors and mitigation measures

Rajan A. Ambat, Kranti Kumar Gupta, Min Wu, Xinyu Shi et al.
4 citations
Carbon Capture Science & Technology
Drilling and Well Engineering
4.58
article

Risks of cement and rock-cement-metal interface degradation in geological carbon sequestration reservoirs: Mechanisms, influencing factors and mitigation measures

Rajan A. Ambat, Kranti Kumar Gupta, Min Wu, Xinyu Shi, Cheng Zhang
article en
4 citations

Abstract

Geologic carbon sequestration (GCS), a technique for capturing and storing CO 2 in deep geologic formations, is considered essential to reduce the alarmingly high carbon emissions causing global warming and climate change. Non-producing oil and gas reservoirs are among the most appealing locations for GCS, though the success of the strategy relies on the long-term integrity of the reservoirs. The degradation of the main reservoir structural and sealing materials including cement and casing steel under the acidic conditions along with potential fluid leakage risks, remains a major concern. This work provides a comprehensive review on the degradation mechanisms affecting cement and the interfaces between cement and casing/formation rock under GCS conditions. The mechanisms and relevant investigation methods for the degradation, both experimental and numerical, are discussed in detail. A special focus is placed on the important influencing factors, especially concerning the exposure conditions inside of the reservoirs, including temperature, pressure, advection conditions, brines as well as contaminants in the stored CO 2 , etc. In addition, representative mitigation strategies for the degradation of cement and the rock-cement-metal interfaces under GCS conditions are summarised. This review aims to highlight important research progress on the subject and identify critical research gaps and challenges for future studies.

Carbon Capture Science & TechnologyVol. 15
Aarhus University (DK), University of Macau (MO), Aarhus School of Architecture (DK), Shanghai Xiandai Architectural Design (CN), Technical University of Denmark (DK)
Climate action
Openalex Percentile: Top 6%
Drilling and Well Engineering
4.58
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