基于传感器数据的故障检测在自主机器人制图中的应用

S. Zaman, F. Ahmad, Mohammad Qasim Khan, Shabir Ali Shah, Asma Jabeen, Nouman Aftab
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引用次数: 0

摘要

环境地图的建立是机器人精确自动导航的首要要求。此外,故障检测和恢复是每一个全自动系统的重要要求。本文描述了来自IMU传感器、Odometry传感器和映射的数据流的定性趋势的影响,以便在运行时检测环境地图的错误创建。它使用一种称为二进制定性观察者(BiQObs)的特殊软件实体来检测传感器数据中的定性趋势(包括,dec, con)。BiQObs从机器人传感器获取两个数据流,提取它们的定性趋势,最后对这些趋势进行比较,以确定它们是否匹配。这项工作基本上包括三个主要的活动阶段:观察、检测故障和修复故障。第一阶段,Observe使用BiQObs来生成和观察传感器数据的趋势,特别是来自三个不同来源的机器人姿态的偏航测量,即IMU、里程计和来自映射的姿态。除了biqob之外,还有两个观察者,即Node Observer (nob)和General Observer (gob),用于监控系统节点及其主题。第二阶段故障检测使用诊断模型服务器和诊断引擎来检测定性趋势不匹配导致故障的根本原因。最后阶段Repair Fault使用Diagnosis Repair Engine和action servers对诊断出的故障进行修复。最后,利用配备SICK激光器和IMU传感器的先锋- 3dx机器人绘制未知环境的场景,对实验结果进行了评估。评估过程成功地检测到车轮打滑导致的里程计错误等故障,并在13.54秒的时间内使情况恢复正常。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fault Detection Using Sensors Data Trends for Autonomous Robotic Mapping
Map building of an environment is the foremost need for precise automatic robotic navigation. Moreover, fault detection and recovery are importantly required for every fully automatic system. The presented work describes influence of qualitative trends of the data streams coming from IMU sensor, Odometry senso, and Mapping in order to detect faulty creation of the map of an environment at runtime. It detects qualitative trends (inc, dec, con) within sensors data using a special software entity called Binary Qualitative Observer (BiQObs). BiQObs takes two data streams from robot sensors, extracts their qualitative trends, and finally compares these trends to find out whether they match or not. The work comprises of basically three main activity phases: Observe, Detect Fault and Repair Fault. First phase Observe uses BiQObs for generating and observing trends in sensors data specifically YAW measurement of the robotic pose from three different sources namely IMU, odometry, and pose from mapping. Besides BiQObs, two more observers namely Node Observer (NObs) and General observer (GObs) are also used for monitoring system nodes and their topics. Second phase Detect Fault uses Diagnosis Model Server and Diagnosis Engine to detect the root cause of the fault caused by mismatch between qualitative trends. Last phase Repair Fault uses Diagnosis Repair Engine and action servers for repairing the diagnosed fault. Finally experimental results are evaluated using the scenario of mapping of an unknown environment with Pioneer-3DX robot equipped with SICK laser and IMU sensors. Evaluation process successfully detects fault like incorrect odometry due to slippage of wheels, and brings the case in normal situation in a remarkable time of 13.54 seconds.
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