Unifying of Steady State and Transient Simulations Methodologies for Increasing Oil Production of Integrated Network of Wells, Pipeline and Topside Processing Equipment

Z. Ali, A. Anuar, Nicolas Grippo, Nurshahrily Emalin Ramli, Najmi Rahim
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引用次数: 3

Abstract

Aging facilities and increasing complexity in operations (e.g., increasing water cut, slugging, sand or wax production) continue to widen the gap between actual production and the full potential of the field. To enable production optimization scenarios within an integrated system comprises of reservoirs, wells and surface facilities, the application of an integrated network modelling has been applied. The highlight of this paper is the synergy of Integrated Production Network Modelling (IPNM) utilizing Steady State Simulator (PROSPER-GAP) and the Transient Simulator (OLGA) tools to identify potential quick gains through gaslift optimization as well as mid and long-term system optimization alternatives. The synergy enables significant reduction in transient simulation time and reduced challenges in OLGA well matching, especially in selecting accurate modelling parameters e.g., well inflow performance (validated well (string) production data, reservoir pressure, temperature and fluid properties and the Absolute Open Flow (AOF) of each well). The paper showcased the successful production gain achieved as well as the workflows and methodologies applied for both Steady State Integrated Production Modelling (IPM Steady State) and Integrated Transient Network Modelling (IPM Transient) as tools for production enhancement. Even though IPM Steady State shows promising results in term of field optimization potential, to increase accuracy and reduce uncertainties, IPM Transient is recommended to be performed to mimic the actual transient phenomena happening in the well to facilities
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井、管道和上层加工设备集成网络增产稳态和瞬态模拟方法的统一
设施老化和作业复杂性的增加(例如,含水率、段塞流、出砂或出蜡量的增加)继续拉大油田实际产量与全部潜力之间的差距。为了在由油藏、井和地面设施组成的集成系统中实现生产优化方案,应用了集成网络建模。本文的重点是利用稳态模拟器(PROSPER-GAP)和瞬态模拟器(OLGA)工具的集成生产网络建模(IPNM)的协同作用,通过气举优化以及中长期系统优化替代方案确定潜在的快速收益。这种协同作用可以显著减少瞬态模拟时间,减少OLGA井匹配中的挑战,特别是在选择准确的建模参数方面,例如井流入性能(验证井(管柱)生产数据、油藏压力、温度和流体性质以及每口井的绝对开放流量(AOF))。本文展示了成功实现的产量增长,以及稳态集成生产建模(IPM稳态)和集成暂态网络建模(IPM暂态)作为提高产量工具所应用的工作流程和方法。尽管IPM Steady State在现场优化潜力方面显示出令人满意的结果,但为了提高精度和减少不确定性,建议使用IPM Transient来模拟井到设施中发生的实际瞬变现象
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