碳捕获、利用和封存 (CCUS) 的水力压裂设计考虑因素

Leopoldo Sierra, Connor Lovingfoss
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摘要

水力压裂技术是石油和天然气行业的一项成熟技术,作为提高碳捕集、利用和封存(CCUS)工艺短期和长期效率的一种潜在方法,它已获得了极大的关注。关于碳捕集、利用和封存(CCUS)的范围研究大多集中在储层方面,如封存和二氧化碳移动。很少有人对这一过程中的裂缝设计进行评估。本文综述了水力压裂在 CCUS 项目中的应用,研究了其技术可行性、流体、维持剂、井筒定向以及确保技术和经济成功所需的压裂定向考虑因素。它将考虑岩石属性、枯竭油气藏条件或深盐水层地层以及封存地点的压缩二氧化碳供应;模拟主要使用超临界二氧化碳(scCO2)和常规流体进行水力压裂。除了 sCO2 使用量和产生裂缝所需的支撑剂外,本文还考虑了井筒方向对应力面的影响。最后,将通过模拟二氧化碳注入行为来评估水力压裂的短期和长期效益。本综述分析了 CCUS 液压致裂过程中涉及的各个关键阶段,从审查岩石性质、井筒定向、射孔策略、选择合适的流体和支撑剂开始,以高效、安全地刺激候选井。正确实施水力压裂工艺的潜在好处将体现在提高存储能力和改善注入能力上。将 sCO2 作为压裂用的主要流体系统,并结合井筒方向和其他参数进行大量模拟,将显示水力压裂和 CCUS 工艺组合的直接益处,包括在 CCUS 中使用 sCO2 和支撑剂进行水力压裂 井筒和水力压裂方向对 CCUS 工艺成功的影响 本文旨在探讨 CCUS 与水力压裂相结合提高二氧化碳处理效率的潜力,并分析最大限度提高其效率的方法。它将对那些考虑采用 CCUS 的人有所帮助,并对其他 CCUS 评估进行补充,以便更全面地了解实施这一概念的可行性以及必须克服的技术障碍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hydraulic Fracturing Design Considerations for Carbon Capture, Utilization, and Storage (CCUS)
Hydraulic fracturing, a well-established technique in the oil and gas industry, has gained significant attention as a potential method to improve the short- and long-term efficiency of the Carbon Capture, Utilization, and Storage (CCUS) process. Most of the scoping studies on CCUS have centered on the reservoir aspects, such as storage and CO2 movement. Very little has been done evaluating what the fracture designs might look like in this process. This paper presents a review of the application of hydraulic fracturing in CCUS projects, examining its technical feasibility, fluids, sustaining agents, wellbore orientation, and fracture orientation considerations required to assure its technical and economic success. It will consider rock properties, depleted oil or gas reservoirs conditions, or deep saline aquifers horizons and compressed CO2 supply at the storage site; simulations have been performed using primarily super critical CO2 (scCO2) and conventional fluids to perform the hydraulic fracturing. In addition to the sCO2 usage and proppants required to tail the generated fractures; the wellbore orientation effect in reference to the stress plane is also considered in the paper. Finally the short- and long-term benefit of the hydraulic fracturing will be evaluated by simulating the CO2 injection behavior. The review encompasses an analysis of the various key stages involved in CCUS hydraulic fracturing process, starting from the review of rock properties, wellbore orientation, perforation strategy, selection of suitable fluid and propping agents for efficient and safe stimulation of a well candidate. The potential benefits of the proper hydraulic fracturing process implementation will be translated in an enhanced storage capacity and improved injectivity. The extensive simulations considering the sCO2 as the primary fluid system for fracturing purposes, combined with the wellbore orientation and other parameters will show the direct benefit of the combinations of the hydraulic fracturing and the CCUS processes, including: The use of sCO2 and proppants for hydraulic fracturing purposes in CCUSThe influence of the wellbore and hydraulic fracture orientation in the success of the CCUS process The paper aims to explore the potential of CCUS in conjunction with hydraulic fracturing to increase the efficiency of CO2 disposal and analyze methods to maximize its effectiveness. It will be beneficial for those contemplating CCUS, complementing other CCUS evaluations to provide a more complete picture of the feasibility as well as technical hurdles that must be overcome to implement this concept.
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