结合关键边坡监测方案的地面干涉合成孔径雷达将提供沿管道走廊边坡运动的早期检测

S. Borron, Martin P. Derby
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引用次数: 0

摘要

卫星InSAR技术向地面系统的过渡,如果与关键坡度监测(CSM)计划相结合,将提供一种经过验证的降低风险的技术。该技术与已定义程序的主动参与一起,可以检测边坡位移和加速度的开始,并提供确定边坡坍塌的方法。最近,使用雷达软件Guardian,它能够以24小时或更短的时间间隔记录地表速度,从而可以开发特定地点的岩崩风险级别。地面干涉合成孔径雷达(InSAR)系统及其接近实时的能力允许进行主动和早期预警监测。该系统的技术要求包括全天候全天候运行,近乎实时地获取数据,并以可解释的格式可视化地呈现数据,无需最终用户进行处理。由于没有加速度的边坡破坏是不可能的,因此处理后数据的快速可视化呈现成为CSM技术的关键组成部分。CSM程序的定义不仅需要短时间间隔的数据采集、处理和可视化呈现,而且还需要能够解释和传达边坡运动变化的监测专业人员。特定的CSM技术要求在监测项目期间每天24小时以2分钟或更短的连续间隔获取数据。此外,CSM技术必须能够在满足阈值时发送警报信息,在获取的雷达数据不断更新且无需最终用户处理的情况下,可视化地呈现各种时间序列图的数据,包括位移和速度图。在任何CSM项目开始时,都需要准备一个特定于现场的文档,称为触发行动响应计划(TARP)。目前,只有IDS (Ingegneria Dei Sistemi) geoadar开发的IBIS-FM和ArcSAR雷达能够满足定义的CSM技术的技术要求。在CSM程序中,每次数据采集之间的短间隔提供了两个特定的优点。首先,较短的采集间隔减少了插值,从而自动提高了数据的置信度。其次,短间隔也降低了大气变化的影响,而大气变化是所有数据获取的一部分。尽管IBIS-FM和ArcSAR雷达系统几乎可以在全天候条件下工作,但当地大气条件的突然变化仍然会对数据产生影响。这两种雷达系统都包含主动专有算法,可以在获取过程中考虑持续的大气变化。相比之下,通过激光雷达和全站仪技术获得的一些遥感数据可能受到当地大气条件突然变化的严重影响。将干涉合成孔径雷达系统的近实时功能与专业人员相结合,可以每天24小时近实时地识别和观察斜坡运动趋势,从而降低对人员和财产的风险。本文将讨论几个成功的CSM项目的亮点。我们描述了部署的通用性,准确识别位移开始的能力,以及对加速开始的关键识别。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ground Based Interferometric Synthetic Aperture Radar Combined With a Critical Slope Monitoring Program Will Provide Early Detection of Slope Movement Along Pipeline Corridors
The transition of satellite InSAR technology to a ground-based system provides a proven risk reduction technology if combined with a critical slope monitoring (CSM) program. Together the technology with the active engagement of a defined program can detect the onset of slope displacement, acceleration, and provide a method to determine slope collapse. Recently, using the radar software, Guardian, and its ability to document surface velocity in intervals of 24-hours or less has allowed for the development of site-specific levels of rockfall risk. The ground-based InSAR (interferometric synthetic aperture radar) systems and their near real-time capabilities allow for proactive and early warning monitoring. The technical requirements include the ability to operate 24/7 in all weather conditions, acquire data in near real-time, and visually present data in an interpretable format that requires no end user processing. Since slope failure without acceleration is unlikely, the rapid visual presentation of processed data becomes a crucial component for a CSM technology. The definition of the CSM program not only requires short intervals for data acquisition, processing, and visual presentation but also requires a monitoring professional that can interpret and communicate changes in slope movement. A specific CSM technology requirement demands, acquiring data at a continuous interval of 2-minutes or less, 24 hours per day for the duration of the monitoring project. Also, the CSM technology must be able to transmit alarm messages at the moment thresholds are met, visually present data with various time series plots, including displacement, and velocity maps while acquired radar data is continuously updated and with no end-user processing. A site-specific document called a trigger action response plan (TARP) needs to be prepared at the start of any CSM project. Currently, only the IBIS-FM and ArcSAR radars developed by IDS (Ingegneria Dei Sistemi) GeoRadar can meet the technical requirements of the defined CSM technology. During a CSM program, the short interval between each data acquisition provides two specific advantages. First, the short acquisition interval decreases interpolation, which automatically increases data confidence. Second, the short intervals also decrease the effects of atmospheric changes that are a part of all data acquisitions. Although the IBIS-FM and ArcSAR radar systems can operate in nearly all-weather conditions, sudden changes in local atmospheric conditions can still exhibit data effects. Both radar systems include active proprietary algorithms that account for ongoing atmospheric changes during acquisitions. In comparison, some remote sensing data acquired from, LIDAR, and total station technologies can be critically affected by sudden changes in local atmospheric conditions. Combining the near real-time capabilities of an interferometric synthetic aperture radar system with a dedicated professional will decrease risk to people and property by allowing slope movement trends to be identified and observed in near real-time, 24-hours per/day. The paper will discuss the highlights of several successful CSM programs. We describe deployment versatility, the ability to identify the onset of displacement accurately, and the critical identification of the onset of acceleration.
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