阿布扎比陆上碳酸盐咸水层二氧化碳储存地点选择-综合技术可行性研究

Siqing Xu, M. Baslaib, A. BinAmro, Aaesha Keebali
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引用次数: 1

摘要

碳捕获与封存(CCS)技术有助于减少大型点源(如发电厂、气体处理设施和其他工业设施)的二氧化碳排放。它包括捕获二氧化碳排放,将捕获的二氧化碳运送到储存地点,并长期安全地储存在地下。永久存储这个术语经常被使用。涉及地下地质构造储存的CCS技术已经很成熟,目前有一些这样的项目正在进行中,还有越来越多的项目处于规划阶段。盐水含水层可能是二氧化碳永久储存的首选。深盐水地层或深盐水储层在世界范围内都存在,这使它们成为潜在的二氧化碳储存候选者。然而,并不是所有的含盐地层都适合长期的商业储存。必须考虑/核实若干至关重要的因素,例如,二氧化碳控制保证、社会和环境影响以及项目商业方面。通常建议将项目可行性作为第一步,从而筛选潜在的咸水层候选物,并根据例如公认的最佳国际准则和标准进行排名。一旦确定了最合适的候选人,将进行详细的可行性研究。一项全面的多学科研究着眼于阿布扎比陆上深层咸水含水层中二氧化碳封存的潜力。感兴趣的区域规模非常大(区域尺度),由多个堆叠的咸水含水层组成。该研究具有额外的复杂性,因为相同的含盐含水层可能与附近的油气勘探和生产活动共享。目的是分析现有的地质数据、油田生产和注入数据,确定关键的制约因素,特别是与二氧化碳遏制保证有关的因素,得出区域储存容量范围的估计,并论证现场二氧化碳储存的可行性。大量的地质数据和研究可以帮助进行区域陆上阿布扎比盐碱层地层地质特征,以进行二氧化碳储存评估。表征综合构成了研究的基础。建立了专门的区域尺度三维含盐含水层组成动态模型,捕捉了关键的CO2固存过程/机制。存储容量估计是由动态模型得出的,结果将单独发表。进行了全面的风险评估。分享风险评估方法和MMV计划的制定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Onshore Abu Dhabi Carbonate Saline Aquifer CO2 Storage Site Selection - An Integrated Technical Feasibility Study
Carbon Capture and Storage (CCS) technologies help reduce carbon dioxide emissions from large point sources, such as power plants, gas processing facilities and other industrial facilities. It involves capturing CO2 emissions, transporting the captured CO2 to storage location, and securely storing underground for a long time. The term permanent storage is very often used. CCS technologies involving storage in underground geological formations are well established, and there are current a number of such ongoing projects, together with an increasing number of projects in the planning phase. Saline aquifers can be leading CO2 permanent storage candidates. Deep saline formations or deep brine reservoirs exist world wide, making them potentially accessible CO2 storage candidates. However, not all saline formations can be considered suitable for long term commercially viable storage candidates. A number of critically important factors must be taken into account/verified, for example, CO2 containment assurance, social and environmental impact, and project commercial aspects. A project feasibility is normally recommended as a first step, whereby potential saline aquifer candidates are screened, ranked against for example accepted best international guidelines and criteria. Detailed feasibility study can follow once top ranked suitable candidate(s) are identified. A comprehensive multi-discipline study was carried out looking at the potential for CO2 sequestration in deep saline aquifer formations within onshore Abu Dhabi. The area of interest is very large in scale (regional scale) and consists of multi stacked saline aquifer formations. The study has the added complexity that the same saline aquifer formations may be shared with near-by hydrocarbon exploration and production activities. The objectives were to analyze available geological data, oil field production and injection data, identify key constraining factors especially concerning CO2 containment assurance, arrive at regional storage capacity range estimates, and demonstrate site CO2 storage feasibility. Considerable amount of geological data and studies are available, which can assist with regional Onshore Abu Dhabi saline aquifer formation geological characterization for CO2 storage assessment. The characterization synthesis forms the study basis. Dedicated regional scale 3D saline aquifer formations compositional dynamic models were constructed, capturing the key CO2 sequestration processes/mechanisms. Storage capacity estimates were obtained from the dynamic model – the results will be published separately. A comprehensive Risk Assessment was carried out. Risk assessment approach and MMV plan development are shared.
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