改造现有光纤基础设施以减轻地质灾害风险:TGP案例

F. Ravet, Alberto Melo, F. Oliveros, E. Rochat
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引用次数: 2

摘要

光纤电缆(OFC)以其在通信中的应用而闻名。它们提供长距离和快速传输速率的能力。OFC是油气和水运系统的完美伙伴,是运营公司通信服务和SCADA物理层的一部分。例如,自2004年开始运营以来,TGP系统在其路权(ROW)内铺设了1400多公里的电缆。最近,OFC开始被用作传感器。在这种应用中,通信电缆(CC)可以变成一个连续的温度传感器,允许泄漏和腐蚀检测。应变监测电缆(SMC)也可以接在CC上,用于选定区域的滑坡和沉降检测。在土壤位移非常大的情况下,通常可以观察到CC上引起的应变。从之前的情况来看,现有的OFC基础设施可以利用监测仪器对管道进行改造。目前的工作描述了如何对现有的CC进行改造,以提供有关TGP运输系统完整性的信息。当需要准确地监测滑坡时,我们会在当地安装专用的感应电缆,并将其连接到地质灾害中心。在其他地方,我们会测量地质灾害中心,以探测和定位发生侵蚀或滑坡等地质灾害的可能性较低的位置。这种方法不仅可以改善地质灾害风险管理,而且还可以显示可能导致电缆破裂的应力的早期迹象,从而降低服务中断的可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Retrofiting Existing Optical Fiber Infrastructure to Mitigate Geohazard Risk: The TGP Case
Optical fiber cables (OFC) are well known for their use in communications. They offer long distance and fast transmission rate capabilities. OFC are the perfect companion of hydrocarbon and water transport system as part of the physical layer of the communication services and SCADA of the operating companies. As an example, the TGP system has more than 1400 km of cables laid in its Right-of-Way (ROW) which are in use since the beginning of its operation in 2004. More recently OFC started to be used as sensors. In such applications, a communication cable (CC) can be turned into a continuous temperature sensor allowing for leak and erosion detection. A strain monitoring cable (SMC) can also be spliced to the CC for landslide and subsidence detection in selected areas. In the case of very large soil displacement, it is common to observe the strain induced on the CC. From what precedes, existing OFC infrastructures can be taken advantage of to retrofit pipelines with monitoring instrumentation. The current work describes how an existing CC is retrofitted to provide information about the TGP transport system’s integrity. When accurate monitoring of a landslide is required, a dedicated sensing cable is installed locally and connected to the CC. Elsewhere the CC is being measured to detect and locate events as erosion or landslide in position where the geohazard risk present lower probability. Such approach not only improves geohazard risk management, but it also indicates early sign of stress on the cable that can lead to its rupture, mitigating service interruption probability.
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