Case Study- Real Time Downhole Telemetry CCL and Tension Compression, a Differentiator for Successful Manipulation of ICD's in Horizontal Wells

U. Ahmed, Zhiheng Zhang, Ruben Ortega Alfonzo
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Abstract

Horizontal well completions are often equipped with Inflow Control Devices (ICDs) to optimize flow rates across the completion for the whole length of the interval and to increase the oil recovery. The ICD technology has become useful method of optimizing production from horizontal wells in a wide range of applications. It has proved to be beneficial in horizontal water injectors and steam assisted gravity drainage wells. Traditionally the challenges related to early gas or water breakthrough were dealt with complex and costly workover/intervention operations. ICD manipulation used to be done with down-hole tractor conveyed using an electric line (e-line) cable or by utilization of a conventional coiled tubing (CT) string. Wellbore profile, high doglegs, tubular ID, drag and buoyancy forces added limitations to the e-line interventions even with the use of tractor. Utilization of conventional CT string supplement the uncertainties during shifting operations by not having the assurance of accurate depth and forces applied downhole. A field in Saudi Arabia is completed with open-hole packer with ICD completion system. The excessive production from the wells resulted in increase of water cut, hence ICD's shifting was required. As operations become more complex due to fact that there was no mean to assure that ICD is shifted as needed, it was imperative to find ways to maximize both assurance and quality performance. In this particular case, several ICD manipulating jobs were conducted in the horizontal wells. A 2-7/8-in intelligent coiled tubing (ICT) system was used to optimize the well intervention performance by providing downhole real-time feedback. The indication for the correct ICD shifting was confirmed by Casing Collar Locator (CCL) and Tension & Compression signatures. This paper will present the ICT system consists of a customized bottom-hole assembly (BHA) that transmits Tension, compression, differential pressure, temperature and casing collar locator data instantaneously to the surface via a nonintrusive tube wire installed inside the coiled tubing. The main advantages of the ICT system in this operation were: monitoring the downhole force on the shifting tool while performing ICD manipulation, differential pressure, and accurately determining depth from the casing collar locator. Based on the known estimated optimum working ranges for ICD shifting and having access to real-time downhole data, the operator could decide that required force was transmitted to BHA. This bring about saving job time while finding sleeves, efficient open and close of ICD via applying required Weight on Bit (WOB) and even providing a mean to identify ICD that had debris accumulation. The experience acquired using this method in the successful operation in Saudi Arabia yielded recommendations for future similar operations.
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案例研究-实时井下遥测CCL和张力压缩,是成功操作水平井ICD的一个区分因素
水平井完井通常配备流入控制装置(icd),以优化整个完井段的流量,提高采收率。ICD技术已成为水平井优化生产的有效方法,应用范围广泛。在水平井注水井和蒸汽辅助重力排水井中均有应用。传统上,与早期气或水突破相关的挑战是复杂且昂贵的修井/修井作业。过去,ICD操作是通过井下牵引器通过电缆(e-line)或常规连续油管(CT)进行的。井眼轮廓、大狗腿、管内径、阻力和浮力都增加了电缆干预的局限性,即使使用了牵引器。常规连续油管管柱的使用弥补了移动作业中的不确定性,因为它不能保证精确的深度和井下施加的力。沙特阿拉伯的一个油田采用了带ICD完井系统的裸眼封隔器进行完井。由于油井产量过高,导致含水率增加,因此需要更换ICD。由于无法确保ICD根据需要进行转换,因此操作变得更加复杂,因此必须找到最大化保证和质量性能的方法。在这种特殊情况下,在水平井中进行了多次ICD操作。采用了2-7/8英寸智能连续油管(ICT)系统,通过提供井下实时反馈来优化修井效果。套管接箍定位器(CCL)和张力和压缩信号确认了正确的ICD移位指示。ICT系统由定制的底部钻具组合(BHA)组成,通过安装在连续油管内的非侵入式管线,将张力、压缩、压差、温度和套管接箍定位器数据瞬间传输到地面。在该作业中,ICT系统的主要优点是:在执行ICD操作、压差操作的同时,监测移动工具的井下力,并从套管接箍定位器精确确定深度。根据已知的ICD移动的最佳工作范围,并获得实时井下数据,操作人员可以决定将所需的力传递给BHA。这节省了寻找滑套的作业时间,通过施加所需的钻压(WOB),有效地开启和关闭ICD,甚至提供了一种识别有碎屑堆积的ICD的方法。利用这种方法在沙特阿拉伯的成功作业中取得的经验为今后类似的作业提出了建议。
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