4-D Geomechanics Modelling for Potential CO2 Storage Site in Malaysia – Fault Reactivation and Maximum Pressure Injection Limit

N. N. Kamaruddin, Kevin Ging Ern Teng, I. H. Musa, C. Tan
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Abstract

This paper presents a study on the risk associated with CO2 injection in geological storage and fault reactivation through a comprehensive workflow for determining the feasibility of CO2 storage campaign in carbonate reservoir in Malaysia. The study includes constructing a 4-D coupled reservoir geomechanical model and developing a workflow that can be used to evaluate geomechanics risks associated with carbon capture and storage (CCS) by outlining results and findings that drive key decisions in the planning of CCS strategy. The workflows aims to better delineate and enumerate the risks with CCS as it constructing and calibrating single well models by corroborating numerous inputs including stringent laboratory testing data and drilling analysis, and combining with structural model and reservoir model to create a field wide 4-D geomechanical model using advanced time lapsed geomechanics simulation. Coupled simulations with the dynamic reservoir model provided predictions of the fault stability by considering fault deformation. The paper further highlights the geomechanics evaluation consideration (economics and engineering trade-off) in designing maximum safe injection pressure for CO2 sequestration program. The results of the study show fault condition subjected to different time-steps of the coupled simulation during depletion and injection. At each time-step, the development of plastic shear strain and absolute displacement are plotted and risks associated with the change in reservoir pressure are assessed and quantified. Different injection plans are modelled to determine the impact on final storage capacity, long term fluid containment and upper safe injection limit to avoid breaching the caprock. The study offers the utilization of the latest techniques in 4-D coupled geomechanical modelling which reduced the study time and cost significantly, making it affordable for in-time solution for decision making. The paper also aims to encourage the consideration of the applied novel workflow involved in CCS strategye valuation focusing on risk assessment which ultimately will affect reservoir maximum safe injection limit, capacity, long term storage safety, and monitoring program to mitigate potential geohazard leakage.
马来西亚潜在二氧化碳储存地点的四维地质力学建模——断层再激活和最大注入压力极限
本文通过一个全面的工作流程,研究了地质储存和断层再激活中二氧化碳注入的风险,以确定马来西亚碳酸盐岩储层二氧化碳储存活动的可行性。该研究包括构建一个4-D耦合油藏地质力学模型,并制定一个工作流程,通过概述结果和发现来评估与碳捕集与封存(CCS)相关的地质力学风险,从而推动CCS战略规划中的关键决策。工作流程旨在更好地描述和列举CCS在构建和校准单井模型时的风险,通过验证大量输入,包括严格的实验室测试数据和钻井分析,并结合结构模型和油藏模型,使用先进的时间延迟地质力学模拟创建全油田的4-D地质力学模型。结合动态储层模型进行模拟,在考虑断层变形的情况下对断层稳定性进行预测。本文进一步强调了在设计二氧化碳封存方案的最大安全注入压力时,地质力学评估的考虑(经济和工程权衡)。研究结果显示了枯竭和注入耦合模拟中不同时间步长的故障状态。在每个时间步,绘制了塑性剪切应变和绝对位移的发展曲线,并对与储层压力变化相关的风险进行了评估和量化。模拟了不同的注入方案,以确定对最终储存量、长期流体密封以及避免泄漏盖层的安全注入上限的影响。该研究利用了最新的四维耦合地质力学建模技术,大大减少了研究时间和成本,使其能够为决策提供及时的解决方案。本文还旨在鼓励考虑应用于CCS策略评估的新工作流程,重点是风险评估,最终将影响油藏的最大安全注入限制、容量、长期储存安全性和监测计划,以减轻潜在的地质灾害泄漏。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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