利用S1流线网络的实时流线模拟改进S1生产和操作的创新方法

Boonyakorn Assavanives, Saranee Nitayaphan, Kantkanit Watanakun, Choosak Kokanutranont, Prakitr Srisuma, Sumbhat Wanwilairat, Pimpisa Pechvijitra, Tattanan Permpholtantana, Worawat Rungfarmai, Naruedon Thatan
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引用次数: 0

摘要

复杂的产线网络如何优化生产一直是传统油田面临的难题。Greater Sirikit (S1)油田目前有800口井和100多条流水线,共400口井。因此,为了最大限度地减少井口压力,调整管线路线是一项至关重要的任务。目前,流线模拟主要用于模拟S1流线网络,包括原油生产流线、气举流线和注水流线,以检查压降和流线尺寸。所有的流水线管理活动都是通过大量的尝试和错误以及手工计算来手动执行的,以保持生产目标。然而,这种方法耗时长,而且结果还没有得到优化。通过Python编程,将现有的流水线仿真模型与在线实时数据相结合,开发了一种创新的工作流。这个创新的模块将数据从生产数据管理系统(PDMS)导入到流水线模拟模型中,并通过Python工具包命令的循环和调节算法自动计算。创新模块的方法是根据从井口到流站(F/STN)的操作压力来优化生产。井口流量可通过试井数据进行初步预测,而运行工况可通过在线数据进行预测。创建的模块优先考虑成为最大产量瓶颈的参数,例如高背压管线或高含水井。然后,通过爬坡优化技术和调节算法,该模块可以选择性地操作井,调整流线路线,以获得最大产量的最佳操作方案。在没有人为干扰的情况下,创新模块和流水线仿真模型的集成创造了BigQuery数据库和仿真软件之间的无缝互操作性。准确度和精密度验证是模块认可前的关键环节。反复调试和重新验证,确保模块的有效性。预计预期压力降低将达到10%,这可能会提高产量。对S1油田的预期产量进行了经济评价。流线压力管理和分配程序可以将回压降低10 psi,从而使400口活动井的产量增加3840桶/天。新的工作流程还有助于减少全职当量(FTE),加快周期时间,使工作流程灵活,能够随时检查。应用程序打算在S1资产上实现,但不限于。凭借Python生态系统的强大功能和灵活性,它可以实现可共享的多步骤工作流程,并且可以将配置扩展到其他资产或其他正在运营的油气田。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Innovative Way of Improving S1 Production and Operation Using Real-Time Flowline Simulations of S1 Flowline Networks
It is always a challenge of legacy oil field to optimize the production with complex flowline network. Greater Sirikit (S1) oil field is operating with 400 wells, approximately, from 800 wells and over 100 flowlines. Therefore, flowline route adjustment is a crucial assignment to minimize pressure at wellheads for maximum production. Currently, the flowline simulations are used to model S1 flowline network, including crude production flowlines, gas lift flowlines, and water injection flowlines to check pressure drop and flowline size. All flowline management activities have been performed manually through numerous trial and errors and hand calculations to maintain production target. However, such method is time-consuming, and the results are not yet optimized. A new innovative workflow is developed from the current flowline simulation models combined with online real-time data by Python programming. This innovative module imports data from the Production Data Management System (PDMS) to flowline simulation models and computes automatically through loops and conditioning algorithms commanded by Python toolkit. Methodology of an innovative module is to optimize production based on operating pressure from the wellheads to Flow Station (F/STN). The wellhead flowrate can be initially predicted from the well testing data while the operating conditions are from online data. The created module prioritizes the parameters that are bottlenecks for maximum production, e.g., high back pressure flowlines, or high water cut wells. Then, the module can selectively operate the wells and adjust the flowline routes with hill climbing optimization technique and conditioning algorithms to obtain the best operating scenario where the maximum production rate is achieved. Without human interference, an integration of an innovative module and flowline simulation models creates the seamless interoperability between BigQuery database and the simulation software. The accuracy and precision verification are a crucial process before module endorsement. Debugging and re-verification are repeated to ensure the validaty of the module. It is foreseen that the prospective pressure reduction will be at 10%, which potentially enhances more production. Economic evaluation has been carried out at expected production rate of S1 field. Flow line pressure management and allocation by program can reduce back pressure by 10 psi which increases production rate of 3840 Bbl/d from 400 active wells. The new work process also helps to reduce Full-time equivalent (FTE) and accelerates cycle time which makes work process agile, able to check anytime. The application intends to implement at S1 asset but not limited to. With the power and flexibility of Python ecosystem, it enables multistep workflows that can be shared, and the configuration can be extended to other assets or other operating oil and gas fields.
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