从非盈利目标中产生收入。HiWAY & TSO压裂技术在蜀树findi油田的成功实施

IF 0.1 Q4 ENERGY & FUELS Fuentes el Reventon Energetico Pub Date : 2021-12-24 DOI:10.18273/revfue.v19n2-202100x
W. Paredes, J. Bustos, J. Carrion, R. León, C. Freire, G. Soria, L. Bravo, J. Vega, C. Giol, J. Freire, V. Capcelea, F. Salazar, J. Pantoja, O. Morales, C. Llerena, P. Cornejo
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引用次数: 0

摘要

巨大的Shushufindi油田于1968年发现,位于厄瓜多尔东方盆地的东北部,分别与秘鲁的Maranon和哥伦比亚的Putumayo盆地相邻。该油田属于57区块,1972年开始生产,目前有165口活跃井。该油田主要产自两个白垩纪储层:Ti和Ui,其次是Ts、Us和BT。从主要储层获得增量产量的挑战成为一项艰巨的任务。对于低产井或弃井,强调从二级储层开采成为满足产量预期的关键目标。次生储层面临的主要挑战是中等岩石物性、地层变异性、低产层、横向不连续和页岩夹层。然而,这些砂岩中有大量的可采储量,使其成为提高产量的有吸引力的目标。在二次油藏中进行常规作业在增产方面存在很大的风险,其平均产油量约为120桶/天。提高这些边缘油藏导流能力的一种策略是水力压裂。诱导裂缝通过连通孔隙,大大提高了渗透率;因此,水力压裂成为提高产量的关键技术。水力压裂的有效性取决于支撑的导流能力、几何形状、裂缝高度和半长。垫块体积和支撑剂浓度在压裂设计中也起着重要作用,因为它们决定了最终的支撑裂缝穿透和导流能力。通过对储层特征的充分了解,再加上适合用途的裂缝设计,在Shushufindi油田成功实施了TSO和HiWAY裂缝设计,并取得了出色的效果。在2018-2019年的WO活动期间,9口井的干预措施涉及二级目标的水力压裂,2口井涉及主要目标的水力压裂。这些作业的执行超出了预期,在作业完成后,该项目的石油产量达到了7000桶/天(790桶/井),预计可采储量为690万桶。
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Generating revenue from non-profitable targets. Successful Implementation of HiWAY & TSO fracture techniques in Shushufindi Field
The giant Shushufindi field, discovered in 1968, is located in the North-East of the Orient basin in Ecuador, neighboring Maranon and Putumayo basins in Peru and Colombia, respectively. The field belongs to Block 57, it started production in 1972 and is sparsely developed with 165 active wells. The production comes from two of the main cretaceous reservoirs: Ti and Ui, with Ts, Us and BT as secondary targets. The challenge to obtain incremental production from the main reservoirs becomes a tough task. The emphasis on producing from the secondary reservoirs turns into a crucial target for meeting the production expectations in the low production or abandoned wells. The main challenges in the secondary reservoirs are intermediate petrophysical properties, stratigraphic variability, low pay, lateral discontinuity, and shale intercalations. However, there is an important volume of recoverable volumes associated in these sands that makes them an attractive target for production enhancement. Performing conventional operation in secondary reservoirs has a wide margin of risk in terms of incremental production, where the average oil production is ~120 BOPD. A strategy to improve conductivity in these marginal reservoirs is hydraulic fracturing. Induced fractures enhance permeability greatly by connecting pores together; with this, hydraulic fracturing becomes a critical technology to increase production. The effectiveness of hydraulic fracturing is determined by the propped conductivity and geometry,the fracture height, and half-length. Pad volume and proppant concentration also play an important role in the fracture-treatment design because they determine final propped fracture penetration and conductivity. A good understanding of the reservoir characteristics, together with a fit-to-purpose fracture design, led to a successful implementation of TSO and HiWAY fracture designs in the Shushufindi field, with outstanding results. During the 2018-2019 WO campaign, nine (9) well interventions involved hydraulic fracturing in secondary targets and two (2) in main targets. The execution of these jobs exceeded expectations generating oil production of 7000 BOPD (790 BOPD/well) after the jobs and revenue to the project, which translates to an estimated 6.9MM Bbls of recoverable reserves.
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