气液混合作用下电潜泵工作的机器学习建模

K. Goridko, A. R. Shabonas, R. Khabibullin, V. Verbitsky, A. V. Gladkov
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引用次数: 0

摘要

西伯利亚西部的油井通常位于人工钻井平台上,形成多达30口井的井群。由自动测量单元逐个测量簇中每口井的流量。流量测量通常需要几个小时,单井的流量可以一周测量一次或更少。这导致影响井速的事件在两次测量之间是不可见的。识别此类事件在许多情况下非常有用,例如对于不稳定井或瞬态井。在遥远的绿地开发过程中也面临着同样的挑战,在那里可以用移动设备每月测量一次流速。本文的目标是基于井作业和ESP的间接高频数据开发一个虚拟流量计模型。在Gubkin大学石油油藏与生产工程系,ESP5-50(118径向级)在大范围内的气液混合物体积气体含量(βin = 0-60%),进气压力(Pin = 0.6-2.1 MPa)和泵轴转速(n= 2400-3600 rpm)进行了台架测试。该装置安装了三个振动传感器:在ESP上,在ESP排出处,在管道上,模拟井口采油树。在台架测试中,记录了进气、排气和泵长度的一系列压力,电流和功耗的一系列,以及频率为每秒几次的振动。根据台架测试结果,我们研究了通过机器学习在人工举升建模过程中间接确定井作业参数的可能性。因此,研究了考虑各种参数(特征)集的建模方法:基于液压参数- ESP进、出口压力;基于液压和电气参数-电流和功耗;基于液压、电气和振动参数。通过对一系列数据的分析,可以确定ESP稳定运行的边界,即过渡到喘振和泵饥饿。本工作的新颖之处在于:-电潜泵气液混合泵送过程的机器学习建模;-解决了正反两个问题:作为虚拟液体流量计,作为泵入口处的虚拟气体含量流量计。
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Modelling of Electric Submersible Pump Work on Gas-Liquid Mixture by Machine Learning
Oil wells in Western Siberia usually placed on artificial drilling pads, forming well clusters up to 30 wells. The flow rate of each well in the cluster measured by an automatic measuring unit one by one. Often flow rate measurement requires several hours and flow rate of a single well can be measured once a week or less. This led to situation then events affecting well rate can be invisible between measurements. Identifying such events can be extremely useful in many cases, for example for wells with unstable behavior or transient regimes. The same challenges are also faced at distant green fields during their development, there the flow rates can be measured once a month with a mobile unit. The objective of this paper is to develop a virtual flowmeter model based on indirect high-frequency data of well operation and ESP. In Gubkin University, at the Petroleum Reservoir and Production Engineering Department, bench tests of ESP5-50 (118 radial stages) on gas-liquid mixture in a wide range of volumetric gas content (βin = 0-60%), intake pressure (Pin = 0.6-2.1 MPa) and pump shaft speed (n= 2400-3600 rpm) were performed. Three vibration sensors were installed on the unit: on the ESP, at the ESP discharge, on the pipeline, which simulates the wellhead production tree. During the bench tests were recorded series of pressures at the intake, discharge and along the pump length, series of current and power consumption, as well as vibrations with frequency several times per second. Based on the bench test results, we investigated the possibility of indirect determination of well operation parameters during artificial lift modelling by machine learning. As a result, the approaches to modelling taking into account various sets of parameters (features) have been studied: based on hydraulic parameters – ESP intake and outlet pressure;based on hydraulic and electric parameters – current and power consumption;based on hydraulic, electric and vibrating parameters. The analysis of data series allowed to define the boundaries of stable ESP operation, namely the transition to surging and pump starvation. The novelty of the work is: –machine learning modeling of the gas-liquid mixture pumping process by electric submersible pump;–solving both direct and inverse issues: as virtual liquid flowmeter as, virtual gas content flowmeter at the pump intake.
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