Integration of Domain Knowledge and Data-Driven Modeling Evaluation Process for Predicting Minimum Miscible Pressure of CO<sub>2</sub>–Oil Systems in CCUS

Zhang, Xing; Xu, Hang; Wang, Kunjuan; Yang, Shenglai; Shen, Bin; Zhao, Ruiming; Guo, Huiying; Zhang, Yuankai; Gao, Xinyuan

doi:10.1021/acs.energyfuels.3c03292

Cited by 3 publications

(1 citation statement)

References 43 publications

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“…It was concluded that SR outperformed the other models. Zhang et al demonstrated the promising performance of the evolved DBN model with whale optimization algorithm (WOA-DBN) for modeling the MMP of CO 2 – oil systems using a comprehensive database. Their study revealed the outstanding of the WOA-DBN compared to some tree-based techniques.…”

Section: Progress On Modeling the Mmp Of The Co2 – Oil Systems Using ...mentioning

confidence: 99%

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Amar,

Djema,

Ourabah

et al. 2024

Energy Fuels

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The carbon dioxide (CO 2 ) based enhanced oil recovery methods (EORs) are considered among the promising techniques for increasing the recovery factor from mature oil reservoirs and reducing the amount of CO 2 emission in the atmosphere. Determining the minimum miscibility pressure (MMP) of CO 2 − oil systems is a crucial step for successfully implementing CO 2 − EOR processes. Therefore, various approaches have been proposed for determining this key parameter. However, the laboratory tests are expensive and timeconsuming, while most available correlations present moderate accuracy. To address these shortcomings, various studies have applied artificial intelligence (AI) techniques to model the MMP of the CO 2 − oil systems. In this study, we reviewed the published works for predicting the MMP of the CO 2 − oil systems using AI-based models. Our analyses revealed the robustness of these techniques in modeling MMP. In this context, it was noticed that more than 70 AI-based paradigms have been utilized for estimating the MMP of CO 2 − oil systems. Among the applications, the hybrid schemes combining machine learning and nature-inspired algorithms (ML-NIA) take the top spot, accounting for 27% of applications. Additionally, the investigation demonstrated that the artificial neural network (ANN) is the most utilized ML method in the modeling phase, while the genetic algorithm (GA) is the most widely applied NIA for improving ML performance. In the second part of this study, we suggest an updated correlation based on gene expression programming (GEP) for the accurate prediction of MMP of CO 2 − oil systems. Our proposed explicit correlation yielded excellent predictive performance, achieving overall root-mean-square error and determination coefficient (R 2 ) values of 0.9253 and 09713, respectively. These promising statistical metrics enabled the newly updated GEP-based correlation to outperform the preexisting models. Besides, the physical validity and interpretability of the proposed correlation were proven using the trend analysis and the Shape Dependence Analysis plot, respectively. Lastly, the findings of this study provide a dual benefit, the review and the illustration of the published studies on applying AI techniques for modeling the MMP of the CO 2 − oil systems; and second, the newly implemented GEP-based correlation can significantly enhance the effective prediction of the MMP in CO 2 -oil systems, thus, facilitating the simulation of various CO 2 − based EOR processes.

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Section: Progress On Modeling the Mmp Of The Co2 – Oil Systems Using ...mentioning

confidence: 99%

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Amar,

Djema,

Ourabah

et al. 2024

Energy Fuels

View full text Add to dashboard Cite

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Determination of Gas–Oil minimum miscibility pressure for impure CO2 through optimized machine learning models

Wu,

Jin,

Zhao

et al. 2024

Geoenergy Science and Engineering

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Utilizing High Melting Point Long-Chain Fatty Acid Based CO₂ Response ILs for Suppression of CO₂ Gas Channeling and Clay Swelling

Chen,

Lin,

Zhang

et al. 2024

Energy Fuels

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The water-alternating-with-gas process is widely applied in oil recovery but faces challenges such as gas channeling and clay swelling that significantly reduce efficiency. To address these issues, a CO 2 -responsive liquid−solid transformation profile control agent (MA−D230) was designed. This agent was synthesized from myristic acid (MA) and O,O′-bis(2aminopropyl)polypropyleneglycol (D230) with a molar ratio of 2:1. MA was transferred from the solid to the liquid phase in D230 solution by electrostatic self-assembly. Upon CO 2 injection, MA was precipitated from the MA−D230 aqueous solution as a solid particle profile control agent, while D230 was protonated as a clay swelling inhibitor. The mechanisms of MA precipitation and D230 protonation were confirmed by the 1 H NMR analysis. After CO 2 injection, RE-MA precipitated from the MA−D230 aqueous solution, exhibiting the same crystal structure, structural features, and melting point as its original state. Furthermore, RE-MA can form in environments with salinity levels ranging from 0 to 2000 ppm, while particle sizes in the micrometer range are generated upon CO 2 injection. Moreover, the core flooding experiments further demonstrated that MA−D230 had an excellent ability to enhance oil recovery. In short, a new method was proposed to solve the problems of gas channeling and clay swelling in CO 2 flooding during the WAG process.

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Integration of Domain Knowledge and Data-Driven Modeling Evaluation Process for Predicting Minimum Miscible Pressure of CO₂–Oil Systems in CCUS

Cited by 3 publications

References 43 publications

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Determination of Gas–Oil minimum miscibility pressure for impure CO2 through optimized machine learning models

Utilizing High Melting Point Long-Chain Fatty Acid Based CO₂ Response ILs for Suppression of CO₂ Gas Channeling and Clay Swelling

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Integration of Domain Knowledge and Data-Driven Modeling Evaluation Process for Predicting Minimum Miscible Pressure of CO2–Oil Systems in CCUS

Cited by 3 publications

References 43 publications

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Utilizing Artificial Intelligence Techniques for Modeling Minimum Miscibility Pressure in Carbon Capture and Utilization Processes: A Comprehensive Review and Applications

Determination of Gas–Oil minimum miscibility pressure for impure CO2 through optimized machine learning models

Utilizing High Melting Point Long-Chain Fatty Acid Based CO2 Response ILs for Suppression of CO2 Gas Channeling and Clay Swelling

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Product

Resources

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Integration of Domain Knowledge and Data-Driven Modeling Evaluation Process for Predicting Minimum Miscible Pressure of CO₂–Oil Systems in CCUS

Utilizing High Melting Point Long-Chain Fatty Acid Based CO₂ Response ILs for Suppression of CO₂ Gas Channeling and Clay Swelling