E. Dongmo, Victorine Belomo, I. K. Ngongiah, Ingrid Imelda Ngoumi Tankoua, D. T. Toko, S. Kingni
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引用次数: 0
摘要
本研究调查了 Y 油田中名为 X 的油井(出于保密原因),该油井最初是在无水的情况下利用油藏的自然能量生产的。经过几年的生产,水开始在油井中过度溢出。本文的目标是通过减少进水,最大限度地提高 X 油井的石油产量。通过 PIPESIM 和 Excel 软件,使用节点分析法对压力体积温度 (PVT) 数据、完井数据和储层数据进行分析,以获得油井性能和衰退曲线,从而进行预测。考虑了两种情况:第一,安装电潜泵(ESP)激活 X 井;第二,打新射孔。电潜泵安装在 11300 英尺处,该处的产水流量为 5586.264 STB/d,产油流量为 1396.566 STB/d。新射孔安装在 12038 英尺处,产水流量为 277.1693 STB/d,产油流量为 5543.387 STB/d。为获得最佳参数,对流线直径和井口压力进行了敏感性分析。得出的最佳参数值为:产水流量为 308.6128 STB/d,产油流量为 5863.643 STB/d。新射孔方案是合适的,因为该方案可以减少水量,最大限度地提高石油产量,利润率为 98086854 美元,在 16 年的生产过程中,投资回报期为 5 个月。
Production Optimization of an Oil Well by Restraining Water Breakthrough
This study investigates the well named X (for confidential reasons) of the field called Y which initially was productive with the natural energy of the reservoir of the oil in the absence of water. After a few years of production, water began to overflow excessively in the well. The goal of this paper is to maximize the oil production in an oil well X by reducing water ingress. The Pressure Volume Temperature (PVT) data, completion data, and reservoir data are analyzed via PIPESIM and Excel software by using the nodal analysis method to get the well performance and decline curve for predictions. Two scenarios are considered: firstly, to install an electric submersible pump (ESP) to activate the X well and secondly to make a new perforation. The ESP is installed at 11300 ft where the water production flow rate is 5586.264 STB/d and the oil production flow rate is 1396.566 STB/d. The new perforation is installed at 12038 ft where the water production flow rate is 277.1693 STB/d and the oil production flow rate is 5543.387 STB/d. To have the optimal parameters, the sensitivity analysis is applied to the flowline diameter and the wellhead pressure. The optimal parameter values obtained are 308.6128 STB/d for the water production flow rate and 5863.643 STB/d for the oil production flow rate. The new perforation is appropriate because this scenario allows water reduction, oil production maximization, profitability of 98086854 $, and a return on investment in 5 months during 16 years of production.