Selection and Characterization of Geological Sites able to Host a Pilot-Scale CO2 Storage in the Paris Basin (GéoCarbone-PICOREF)

E. Brosse, G. Badinier, François Blanchard, E. Caspard, P. Collin, J. Delmas, C. Dezayes, R. Dreux, A. Dufournet, P. Durst, S. Fillacier, D. Garcia, S. Grataloup, F. Hanot, V. Hasanov, P. Houel, C. Kervévan, M. Lansiart, M. Lescanne, A. Menjoz, M. Monnet, P. Mougin, B. Nedelec, A. Poutrel, X. Rachez, P. Renoux, C. Rigollet, V. Ruffier-Meray, S. Saysset, I. Thinon, A. Thoraval, S. Vidal-Gilbert
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引用次数: 29

Abstract

The objective of the GeoCarbone-PICOREF project was to select and characterize geological sites where CO2 storage in permeable reservoir could be tested at the pilot scale. Both options of storage in deep saline aquifer and in depleted hydrocarbon field were considered. The typical size envisioned for the pilot was 100 kt CO2 per year. GeoCarbone-PICOREF initially focused on a “Regional Domain”, ca. 200 × 150 km, in the Paris Basin. It was attractive for the following reasons: detailed geological data is available, due to 50 years of petroleum exploration; basin-scale deep saline aquifers are present, with a preliminary estimate of storage capacity which is at the Gt CO2 level, namely the carbonate Oolithe Blanche Formation, of Middle Jurassic age, generally located between 1500 and 1800 m depths in the studied area, and several sandstone formations of Triassic age, located between 2000 and 3000 m; several depleted oil fields exist: although offering storage capacities at a much lower level, they do represent very well constrained geological environments, with proven sealing properties; several sources of pure CO2 were identified in the area, at a flow rate compatible with the pilot size, that would avoid capture costs. 750 km of seismic lines were reprocessed and organized in six sections fitted on well logs. This first dataset provided improved representations of: the gross features of the considered aquifers in the Regional Domain; the structural scheme; lateral continuity of the sealing cap rocks. An inventory of the environmental characteristics was also made, including human occupancy, protected areas, water resource, natural hazards, potential conflicts of use with other resources of the subsurface, etc. From all these criteria, a more restricted geographical domain named the “Sector”, ca. 70 × 70 km, was chosen, the most appropriate for further selection of storage site(s). The geological characterization of the Sector has been as exhaustive as possible, with the reprocessing of additional 450 km of seismic lines, and the collection of a complete well-data base (146 petroleum wells). At this scale a relatively detailed characterization of the sedimentary layers could be done, in particular the formations potentially rich in aquifer units. For the Middle Jurassic carbonates observations were made on analogue sediments outcropping 150 km to the east of the Sector. A geological and numerical 3-D representation of the whole sedimentary pile of the Sector area was built. It forms a basis for constructing grids used by codes able to simulate various processes induced by CO2 injection (displacement of the fluids, pressure build-up and release, mechanical deformation, mineral interactions, control of the parameters used to check the local sealing efficiency, etc.). In parallel with that work on aquifers, GeoCarbone-PICOREF has access to all the petroleum data, including production data and reservoir modelling, of the Saint-Martin de Bossenay oil field, localized in the eastern part of the Sector. This was an opportunity to apply a comparable methodology and to test the capabilities of modelling codes to the specific case of a depleted hydrocarbon field, and to show some of the advantages of such a context with respect to a pilot-scale CO2 injection.
巴黎盆地能够容纳中试规模二氧化碳储存的地质地点的选择和特征(g碳- picoref)
GeoCarbone-PICOREF项目的目标是选择和描述可在中试规模上测试渗透储层中二氧化碳储存的地质地点。考虑了深咸水层和枯竭油气田两种储层方案。该试点项目的典型设想规模为每年10万吨二氧化碳。GeoCarbone-PICOREF最初集中在巴黎盆地一个约200 × 150公里的“区域域”。它具有吸引力的原因如下:由于50年的石油勘探,可以获得详细的地质资料;研究区存在盆地规模的深层咸水含水层,初步估计储气量为Gt CO2水平,即中侏罗统碳酸盐Oolithe Blanche组,一般位于1500 ~ 1800 m深度之间;三叠纪砂岩组位于2000 ~ 3000 m深度之间;目前存在几个枯竭油田:虽然储量低得多,但它们确实代表了非常受约束的地质环境,具有已证实的密封性能;在该地区确定了几种纯二氧化碳来源,其流量与试点规模相匹配,可以避免捕获成本。对750公里的地震线进行了重新处理,并将其组织为六个剖面,并在测井曲线上进行了拟合。第一个数据集提供了改进的表示:区域域中考虑的含水层的总体特征;结构方案;封盖岩的横向连续性。对环境特征进行了盘点,包括人类占用、保护区、水资源、自然灾害、与其他地下资源使用的潜在冲突等。从所有这些标准中,选择了一个更有限的地理范围,称为“区”,约70 × 70公里,是进一步选择储存地点的最合适地点。该地区的地质特征已尽可能详尽,对另外450公里的地震线进行了再处理,并收集了完整的油井数据库(146口油井)。在这个尺度上,可以对沉积层进行相对详细的描述,特别是可能富含含水层单位的地层。对于中侏罗世碳酸盐岩,在该区以东150公里处的类似沉积物上进行了观测。建立了扇区整个沉积桩的三维地质和数值表示。它构成了构建网格的基础,用于能够模拟由二氧化碳注入引起的各种过程的代码(流体的位移、压力的积聚和释放、机械变形、矿物相互作用、用于检查局部密封效率的参数控制等)。在对含水层进行研究的同时,gecarbone - picoref还可以访问位于该地区东部的Saint-Martin de Bossenay油田的所有石油数据,包括生产数据和油藏建模。这是一个机会,可以应用类似的方法,并测试模拟代码在枯竭碳氢化合物油田的具体情况下的能力,并展示这种情况下相对于中试规模的二氧化碳注入的一些优势。
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