Sensor Ball: Autonomous, Intelligent Logging Platform

E. Buzi, H. Seren, M. Deffenbaugh, Y BukhamseenAhmed, Mohamed Larbi Zeghlache
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引用次数: 1

Abstract

Recent developments in automation and electronics have enabled modernization and miniaturization of oilfield instruments. One product of these trends is our autonomous logging platform called "Sensor Ball". The Sensor Ball is a handheld, untethered logging tool that one person can deploy and recover from a pressurized well with no special equipment and crews (Deffenbaugh, 2016). The only tool needed is a wrench to open the cap of the wellhead. The operator puts the sensor ball in through the cap, then sequentially opens and closes the crown and master valves. This process takes only a few minutes. Once clear of the well head, the Sensor Ball falls down the well, logging data as it travels downhole. During this time, all the wellhead valves are closed and there is no need for the field crew to stay at the well site. We present data from recent Sensor Ball deployments to log pressure and temperature profiles and bottom-hole pressures. Depth information is provided by a novel onboard sensor that detects the connections between casing or tubing joints like a casing collar locator. A small dissolvable metal weight is magnetically attached to the housing and is sized to make the Sensor Ball descend at about 1 foot per second. At the desired depth, Sensor Ball drops the weight to become buoyant in the wellbore fluids and return to the surface. As it returns, it repeats the logging measurements, storing temperature and pressure data in its internal memory. After a typical four-to-eight hour mission, the operator returns to the well, opens and closes the well head valves in reverse order, removes the cap and takes out the Sensor Ball. The logged data are downloaded wirelessly to a laptop or cell phone. A lightweight, syntactic foam housing provides buoyancy and protects the electronics from the well fluids. The small thermal mass of the housing minimizes the temperature distortion in the downhole environment. This miniaturized technology simplified logging to a one-person job and shortened the time at the well from multiple hours to a few minutes. This work describes a novel method of retrieving downhole data, which is a practical and inexpensive alternative to wireline or slickline logging and permanently-installed sensors (Deffenbaugh, 2017). In this paper we present the system design and our recent field results from vertical and deviated wells. We also describe a new application of the Sensor Ball where we perform extended bottom-hole pressure measurements in addition to logging temperature and pressure along the wellbore.
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传感器球:自主智能测井平台
自动化和电子技术的最新发展使油田仪器的现代化和小型化成为可能。顺应这些趋势的一个产品就是我们的自动测井平台“Sensor Ball”。传感器球是一种手持式、非系留测井工具,一个人就可以在没有特殊设备和人员的情况下从压力井中部署和恢复(defenbaugh, 2016)。唯一需要的工具是一把扳手来打开井口的盖子。操作人员将传感器球通过阀盖放入,然后依次打开和关闭顶阀和主阀。这个过程只需要几分钟。一旦离开井口,传感器球就会落入井中,并在井下记录数据。在此期间,所有井口阀门都关闭,现场工作人员无需留在井场。我们提供了最近传感器球部署的数据,以记录压力、温度曲线和井底压力。深度信息由新型板载传感器提供,该传感器可以检测套管或油管接头之间的连接,就像套管接箍定位器一样。一个小的可溶解金属重量被磁性地附着在外壳上,其大小可以使传感器球以每秒1英尺的速度下降。在期望的深度,传感器球释放重量,使其在井筒流体中变得浮力,然后返回地面。当它返回时,它重复测井测量,将温度和压力数据存储在内部存储器中。通常在完成4 - 8小时的作业后,操作人员返回井中,以相反的顺序打开和关闭井口阀,取下井盖,取出传感器球。记录的数据被无线下载到笔记本电脑或手机上。轻质的复合泡沫外壳提供浮力,并保护电子设备不受井液的影响。壳体的小热质量最大限度地减少了井下环境中的温度畸变。这种小型化的技术将测井工作简化为一人作业,并将作业时间从几个小时缩短到几分钟。这项工作描述了一种获取井下数据的新方法,这是一种实用且廉价的替代电缆或钢丝绳测井和永久安装传感器的方法(defenbaugh, 2017)。在本文中,我们介绍了该系统的设计以及我们最近在直井和斜井中的现场结果。我们还介绍了传感器球的一种新应用,除了沿着井筒测量温度和压力外,还可以进行扩展的井底压力测量。
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