Cloud-Based Solution for Advanced Real-Time Fracturing Evaluation

Sergey Parkhonyuk, Max Nikolaev, Andrey O. Fedorov, A. Konchenko, T. Vik
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引用次数: 2

Abstract

The ability to make real-time adjustments to hydraulic fracturing treatment design and pumping schedules leads to more-effective proppant placement and ensures every cluster delivers its full potential. There are numerous advanced methods to monitor and interpret the fracturing downhole events: microseismic analysis, distributed measurements with fiber optics, and high-frequency pressure monitoring. Advances in digital technologies allowed creating a cloud-based application combining downhole and surface data to enable real-time fracturing design adjustments from anywhere. The application uses a public cloud solutions stack to synchronize surface and downhole measurements and visualize them on the Web. All computations are performed on virtual machines that create the visualization of downhole events in milliseconds. Interpretation of distributed temperature survey (DTS) and heterodyne distributed vibration sensing (hDVS) data has enabled reliable monitoring of diversion techniques, leak detection, and improvements in well integrity and provides support for any type of well intervention. The innovation in the use of the cloud-based application comes from the combination of a novel technique for processing and visualization of high-frequency pressure monitoring (HFPM). HFPM monitoring provides a cost-effective solution for completion efficiency. The application is currently used for a novel wireline service that utilizes a fiber-optic cable for downhole temperature and acoustics measurements. Results have shown consistency and reliability in the interpretation of received data and confirmation of wellbore events, particularly in DTS and hDVS measurements. Field tests with HFPM have demonstrated that all processing and computations can be reasonably automated in a cloud to provide access to fracturing monitoring at anytime, from anywhere, and from any device. That provides excellent flexibility and means for further reducing the cost of well completions and maintenance, boosting the efficiency, and lowering cost per barrel. A technology stack of a secure public cloud makes an application cost effective and seamlessly scalable on demand. At the same time, the progress of the application does not stop with current possibilities. The innovation of cloud services, such as out-of-the-box machine learning libraries, is now available to for building applications on top of acquired data. Cloud-based architecture is showing that any digital measurements can be effectively integrated, processed, and visualized in real time for decision making while the job is running. It creates a new service level for real-time fracturing monitoring that differentiates it from previous solutions.
基于云的先进实时压裂评估解决方案
能够实时调整水力压裂处理设计和泵送计划,从而更有效地放置支撑剂,并确保每个簇都能充分发挥其潜力。有许多先进的方法可以监测和解释井下压裂事件:微地震分析、光纤分布式测量和高频压力监测。随着数字技术的进步,可以创建基于云的应用程序,将井下和地面数据结合起来,实现随时随地的实时压裂设计调整。该应用程序使用公共云解决方案堆栈来同步地面和井下测量数据,并将其在网络上可视化。所有的计算都是在虚拟机上进行的,虚拟机可以以毫秒为单位创建井下事件的可视化。分布式温度测量(DTS)和外差分布式振动传感(hDVS)数据的解释可以可靠地监测转向技术、泄漏检测和改善井的完整性,并为任何类型的油井干预提供支持。基于云的应用程序的创新来自于高频压力监测(HFPM)处理和可视化的新技术的结合。HFPM监测为完井效率提供了经济高效的解决方案。该应用程序目前用于一种新型电缆服务,该服务利用光纤电缆进行井下温度和声学测量。结果表明,对接收数据的解释和井眼事件的确认具有一致性和可靠性,特别是在DTS和hDVS测量中。HFPM的现场测试表明,所有的处理和计算都可以在云中实现自动化,从而可以随时随地、通过任何设备进行压裂监测。这为进一步降低完井和维护成本、提高效率和降低每桶成本提供了绝佳的灵活性和手段。安全公共云的技术堆栈使应用程序具有成本效益,并可根据需要无缝扩展。与此同时,应用程序的进程不会因当前的可能性而停止。云服务的创新,如开箱即用的机器学习库,现在可以用于在获取的数据之上构建应用程序。基于云的架构表明,任何数字测量都可以有效地集成、处理和实时可视化,以便在作业运行时做出决策。它为实时压裂监测创造了一个新的服务水平,与以前的解决方案有所不同。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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