智能完井实现马来西亚近海区域隔离

C. Carpenter
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引用次数: 0

摘要

本文由JPT技术编辑克里斯-卡彭特(Chris Carpenter)撰写,包含IPTC 22882号论文 "利用选择性智能完井推进马来西亚深水裸眼砾石层和分区隔离 "的要点,作者为SPE的埃尔维-塞缪尔(Elvy Samuel)、PTTEP的诺帕南-诺普西里(Noppanan Nopsiri)和李灿芳(Lee Chan Fong)等人。 该论文未经同行评审。版权归 2023 年国际石油技术大会所有。 随着油田的成熟,钻井和完井设计以及填充开发的执行变得更具挑战性。在深水环境中,一种策略是在单个井筒中瞄准多个储层包。然而,这种技术经常带来技术挑战,因为穿透不同的储层需要积极的储层管理、考虑到分区隔离以及对潜在的横流做出适当的反应。本文介绍了在马来西亚深水区块K完成的一口智能井中实施的完井策略。SNP油田位于沙巴近海125公里处,水深约1350-1400米。该油田横跨 K 区块和 G 区块之间的边界,距离 Kikeh 浮式生产、储存和卸载(FPSO)设施约 15 公里。该油田于 2011 年开始第一期开发,完成了九个采油器的开孔砾石包(OHGPs)和五个注水器的开孔砾石包(OHGPs),并在沙面安装了可伸缩沙筛网。第二期开发于 2021 年第三季度开始,共有三口标准采油井和一口智能采油井,部分内容已在整篇论文中介绍。SNP 第 2 阶段的所有油井都是在一个共同的压力机制下,以各种砂储层为目标,以 OHGP 的形式完成的。完整论文中讨论的这口井通过在砂面上实施具有分区隔离功能的 OHGP,采用智能完井架构,解决了与深度、上层区(UZ)和下层区(LZ)之间的压差以及中层区(MZ)的隔离要求有关的地下不确定性问题。生产区之间的流量分流将通过部署中间完井和上部完井的智能完井结构来实现。该井于 2022 年第一季度投产,并在 Kikeh FPSO 上实现了无固体含量的目标产量。 在这一油田,压裂压力窗口很小,这表明采用常规 OHGP 方法具有挑战性。此外,分区隔离的要求也增加了这一复杂性。为了实现完全裸眼(OH)覆盖的目标,同时实现分区隔离,分流管技术被认为是至关重要的。选择分流管技术可以取得以下成果:- 减轻过早漏筛,因为该技术是一种成熟的系统,可使泥浆绕过钻孔/筛孔环空中的任何限制 - 将分流筛砂和钻孔机械封隔器与选择性分流管隔离能力相结合,实现分区隔离能力 - 应用分流阀,这在具有边缘压裂压力窗口的油田中至关重要
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Intelligent Completion Enables Zonal Isolation Offshore Malaysia
This article, written by JPT Technology Editor Chris Carpenter, contains highlights of paper IPTC 22882, “Advancement of Openhole Gravel Pack and Zonal Isolation With Selective Intelligent Completion in Deepwater Malaysia,” by Elvy Samuel, SPE, Noppanan Nopsiri, and Lee Chan Fong, PTTEP, et al. The paper has not been peer reviewed. Copyright 2023 International Petroleum Technology Conference. As fields mature, drilling and completion design and execution for infill development become more challenging. In a deepwater environment, one strategy is to target several reservoir packages in a single wellbore. This technique frequently presents technical challenges, however, because penetrating different zones requires active reservoir management, an allowance for zonal isolation, and an adequate response to potential crossflow. The complete paper presents a completion strategy implemented in an intelligent well completed in the Malaysian deepwater Block K. The SNP Field is 125 km offshore Sabah in approximately 1350–1400 m water depth. The field crosses the boundary between Block K and Block G, approximately 15 km from the Kikeh floating production, storage, and offloading (FPSO) facility. The field commenced Phase 1 in 2011 with the completion of nine oil producers as openhole gravel packs (OHGPs) and five water injectors with expandable sand screens at the sandface. Phase 2 development, partially covered in the complete paper, commenced in the third quarter of 2021 with three standard oil producers and one smart producer well. All SNP Phase 2 wells were completed as OHGPs targeting various sand reservoirs in a common pressure regime. The well discussed in the complete paper addressed subsurface uncertainties related to depth and the pressure differential between the upper zone (UZ) and the lower zone (LZ) and the isolation requirements of the middle zone (MZ) by implementing an intelligent completion architecture with an OHGP with zonal isolation on the sandface. The flow diversion between the producer zones would be achieved through the deployment of an intermediate completion coupled with an intelligent completion architecture in the upper completion. The well was placed on production in the first quarter of 2022 to the Kikeh FPSO, achieving the targeted rates solids-free. In this field, the fracture pressure window is marginal, suggesting that a conventional OHGP approach would be challenging. Adding to this complexity is the zonal-isolation requirement. To achieve the objective of complete openhole (OH) coverage and to enable zonal isolation simultaneously, shunt-tube technology was identified as critical. The selection of shunt-tube technology allows the following achievements: - Premature screenout mitigation, because the technique is a proven system that enables the slurry to bypass any restriction in the OH/screen annulus - Zonal-isolation capabilities by combining shunted sand screens and OH mechanical packers with selective shunt-tube isolation capabilities - Application of diverter valves, crucial in fields with marginal fracture pressure windows
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