Special Issues
Table of Content

Subsurface Fluid Flow Dynamics and Applications in Carbon Reduction Technologies

Submission Deadline: 28 February 2026 View: 528 Submit to Special Issue

Guest Editors

Dr. Jinze Xu

Email: jinzxu@ucalgary.ca; jason.xu@aer.ca

Affiliation: Department of Chemical and Petroleum Engineering, University of Calgary, Calgary, Canada

Homepage:

Research Interests: subsurface fluid flow, petroleum engineering

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Dr. Guoxuan Ren

Email: gxren@eitech.edu.cn

Affiliation: Eastern Institute of Technology, 315200, Ningbo, China

Homepage:

Research Interests: subsurface fluid flow; petroleum engineering

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Summary

Subsurface fluid flow dynamics describes how fluids move through porous rocks and fractured formations, influenced by pressure gradients, permeability, porosity, and multiphase interactions. These processes are central to carbon reduction technologies, where understanding flow behavior enables safe and efficient underground storage of greenhouse gases and supports the transition to carbon-neutral energy systems.

The urgent need for effective climate solutions has driven intensive research into subsurface flow across applications such as geological carbon sequestration, geothermal energy, underground hydrogen storage, and enhanced hydrocarbon recovery with integrated carbon management. In carbon capture and storage (CCS), fluid dynamics governs the injection, migration, and long-term containment of CO₂ in deep formations, relying on mechanisms such as capillary trapping and mineral carbonation. Similarly, geothermal systems harness heat transfer through circulating fluids, while hydrogen storage in porous reservoirs depends on accurate prediction of multiphase flow and geochemical interactions. Enhanced oil recovery processes also integrate CO₂ injection, coupling resource utilization with permanent carbon storage.

This Special Issue highlights advances in multiphase flow behavior, reactive transport, numerical modeling, and innovative sequestration materials, while addressing fault stability, induced seismicity, and storage integrity. Emphasis is placed on computational fluid dynamics, machine learning, and optimized injection strategies. By linking fundamental fluid mechanics with applied carbon management, this collection provides a vital platform to advance research, policy, and practice in global carbon reduction efforts.


Keywords

carbon capture and storage (CCS), subsurface fluid flow, multiphase flow in porous media, CO₂ sequestration, geological carbon storage, reactive transport modeling, enhanced oil recovery (EOR), underground hydrogen storage, geothermal energy systems, computational fluid dynamics (CFD)

Published Papers


  • Open Access

    ARTICLE

    Pore-Scale Simulations to Enhance Development Strategies in Offshore Weak Water-Drive Reservoirs

    Xianke He, Yuansheng Li, Hengjie Liao, Zhehao Jiang, Meixue Shi, Zhe Hu, Yaowei Huang, Keliu Wu
    FDMP-Fluid Dynamics & Materials Processing, Vol.22, No.1, 2026, DOI:10.32604/fdmp.2026.074990
    (This article belongs to the Special Issue: Subsurface Fluid Flow Dynamics and Applications in Carbon Reduction Technologies)
    Abstract Weak water-drive offshore reservoirs with complex pore architecture and strong permeability heterogeneity present major challenges, including rapid depletion of formation energy, low waterflood efficiency, and significant lateral and vertical variability in crude oil properties, all of which contribute to limited recovery. To support more effective field development, alternative strategies and a deeper understanding of pore-scale flow behavior are urgently needed. In this work, CT imaging and digital image processing were used to construct a digital rock model representative of the target reservoir. A pore-scale flow model was then developed, and the Volume of Fluid (VOF)… More >

    Graphic Abstract

    Pore-Scale Simulations to Enhance Development Strategies in Offshore Weak Water-Drive Reservoirs

  • Open Access

    ARTICLE

    Gas Production and Reservoir Settlement in NGH Deposits under Horizontal-Well Depressurization

    Lijia Li, Shu Liu, Xiaoliang Huang, Zhilin Qi
    FDMP-Fluid Dynamics & Materials Processing, Vol.22, No.1, 2026, DOI:10.32604/fdmp.2026.073294
    (This article belongs to the Special Issue: Subsurface Fluid Flow Dynamics and Applications in Carbon Reduction Technologies)
    Abstract Identifying geohazards such as landslides and methane leakage is crucial during gas extraction from natural gas hydrate (NGH) reservoirs, and understanding reservoir settlement behavior is central to this assessment. Horizontal wells can enlarge the pressure relief zone within the formation, improving single-well productivity, and are therefore considered a promising approach for NGH development. This study examines the settlement response of hydrate-bearing sediments during depressurization using horizontal wells. A fully coupled thermal, hydraulic, mechanical, and chemical (THMC) model with representative reservoir properties (Shenhu region in the South China Sea) is presented accordingly. The simulations show that More >

  • Open Access

    ARTICLE

    Sand Production in Unconsolidated Sandstone: Experimental Analysis of Multiphase Flow During Cyclic Injection and Production

    Tianen Liu, Kun Dai, Shiju Ren, Chuanxiang Zhang, Xiaoling Tang, Jinghong Hu, Yidong Cai, Jun Lu
    FDMP-Fluid Dynamics & Materials Processing, Vol.21, No.12, pp. 2981-2995, 2025, DOI:10.32604/fdmp.2025.073859
    (This article belongs to the Special Issue: Subsurface Fluid Flow Dynamics and Applications in Carbon Reduction Technologies)
    Abstract Many mature onshore oilfields have entered a high-water-cut stage, with reservoir recovery approaching economic limits. Converting these depleted or nearly depleted reservoirs into underground gas storage (UGS) facilities offers an efficient way to leverage their substantial storage potential. During cyclic gas injection and withdrawal, however, the reservoir experiences complex three-phase flow and repeated stress fluctuations, which can induce rock fatigue, inelastic deformation, and ultimately sand production. This study uses controlled physical experiments to simulate sand production in reservoir rocks subjected to alternating gas injection and production under three-phase conditions. After preparing oil-water-saturated cores through waterflooding,… More >

    Graphic Abstract

    Sand Production in Unconsolidated Sandstone: Experimental Analysis of Multiphase Flow During Cyclic Injection and Production

  • Open Access

    ARTICLE

    Effect of Salinity on Imbibition-Based Oil Production

    Xiong Liu, Yueqi Cui, Yirui Ren, Lingxuan Peng, Yuchan Cheng, Zhiyuan Du, Yu Chen, Lishan Cao
    FDMP-Fluid Dynamics & Materials Processing, Vol.21, No.11, pp. 2815-2828, 2025, DOI:10.32604/fdmp.2025.073775
    (This article belongs to the Special Issue: Subsurface Fluid Flow Dynamics and Applications in Carbon Reduction Technologies)
    Abstract This study explores the impact of salinity on fluid replacement during imbibition-driven oil recovery through a series of core self-imbibition experiments. By integrating key parameters such as interfacial tension, contact angle, and oil displacement efficiency, we systematically examine how variations in salinity level, ion type, and ion concentration affect the imbibition process. The results demonstrate that the salinity of the injected fluid exerts a strong influence on the rate and extent of oil recovery. Compared with high-salinity conditions, low-salinity injection, particularly below 5000 mg·L−1, induces pronounced fluctuations in the replacement rate, achieving the highest recovery at More >

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