Fall-curve: A novel primitive for IoT Fault Detection and Isolation

Tusher Chakraborty, A. Nambi, Ranveer Chandra, Rahul Sharma, Manohar Swaminathan, Zerina Kapetanovic, J. Appavoo
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引用次数: 35

Abstract

The proliferation of Internet of Things (IoT) devices has led to the deployment of various types of sensors in the homes, offices, buildings, lawns, cities, and even in agricultural farms. Since IoT applications rely on the fidelity of data reported by the sensors, it is important to detect a faulty sensor and isolate the cause of the fault. Existing fault detection techniques demand sensor domain knowledge along with the contextual information and historical data from similar near-by sensors. However, detecting a sensor fault by analyzing just the sensor data is non-trivial since a faulty sensor reading could mimic non-faulty sensor data. This paper presents a novel primitive, which we call the Fall-curve - a sensor's voltage response when the power is turned off - that can be used to characterize sensor faults. The Fall-curve constitutes a unique signature independent of the phenomenon being monitored which can be used to identify the sensor and determine whether the sensor is correctly operating. We have empirically evaluated the Fall-curve technique on a wide variety of analog and digital sensors. We have also been running this system live in a few agricultural farms, with over 20 IoT devices. We were able to detect and isolate faults with an accuracy over 99%, which would have otherwise been hard to detect only by observing measured sensor data.
下降曲线:物联网故障检测和隔离的新原语
物联网(IoT)设备的激增导致各种类型的传感器在家庭、办公室、建筑物、草坪、城市甚至农场中部署。由于物联网应用依赖于传感器报告的数据保真度,因此检测故障传感器并隔离故障原因非常重要。现有的故障检测技术需要传感器领域的知识以及附近类似传感器的上下文信息和历史数据。然而,仅通过分析传感器数据来检测传感器故障是非常重要的,因为故障传感器读数可以模拟非故障传感器数据。本文提出了一种新颖的原语,我们称之为下降曲线,即传感器在断电时的电压响应,它可以用来表征传感器的故障。下降曲线构成独立于被监测现象的唯一特征,可用于识别传感器并确定传感器是否正确工作。我们已经在各种模拟和数字传感器上对下降曲线技术进行了经验评估。我们还在几个农场现场运行了这个系统,有20多个物联网设备。我们能够以超过99%的精度检测和隔离故障,否则仅通过观察测量的传感器数据很难检测到故障。
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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