Tuhan Sapumanage, N. Sapumanage, Chamika Bandara
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摘要

浪涌保护装置(spd)目前被广泛使用,以保护电子设备免受雷击产生的瞬态过电压的影响。尽管spd被用来保护电子设备,但每年仍有数百万美元的损失被报道。因此,与电网隔离是防止暂态过电压中有害能量渗透的最佳解决方案。但人类无法进行隔离,因为人类对即将到来的闪电放电不敏感,也不够快,无法在闪电事件发生后做出反应。因此,应该有一个超快速的机制来检测即将到来的照明放电,并执行从公用事业电源到本地电源的转换。本研究旨在设计一种机器学习解决方案,可用于克服传统spd中的此类限制。为了便于分析,将上报的脉冲信号分为三种特征类型。即脉冲爆发,单极和双极。采集代表上述所有签名类型的数据样本,进行处理并输入Azure机器学习工作室,以训练线性回归模型。该模型的R2值为0.7547。从而证实了电场强度与感应电压大小之间的强正相关关系。部署的解决方案预测的平均准确率为87.82%,证实了其准确预测感应电压大小的能力,从而在输入感应电压超过阈值时采取主动行动,从而保护电气和电子设备。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study and Analysis on Addressing Present Drawbacks of Traditional Surge Protection Devices (SPDs) using Machine Learning
Surge Protection Devices (SPDs) are being extensively used at present to safeguard electronic equipment from lightning generated transient over-voltages. Despite SPDs being employed to protect electronic equipment, every year millions worth damages are being reported. Hence, isolation from the power grid would be considered as the best solution to prevent the infiltration of harmful energy contained in the transient over-voltages. But isolation cannot be performed by humans as they are not sensitive to imminent lightning discharges nor fast enough to respond post lightning events. Thus, there should be an extra-fast mechanism to detect imminent lighting discharge and perform a change-over from the utility supply to a local power supply. This study aims to device a machine learning solution which could be used to overcome such limitations in traditional SPDs. For the convenience of analysis, reported impulses were categorized into three signature types. Namely, pulse-burst, unipolar and bipolar. A data sample was taken which represents all above said signature types, was processed and fed into the Azure Machine Learning Studio in order to train a linear regression model. Such model yielded an R2 value of 0.7547. The strong positive correlation between the strength of the electric field and the magnitude of the induced voltage was thereby confirmed. The deployed solution had a mean accuracy of 87.82% of its predictions, confirming its ability to accurately predict the magnitude of the induced voltages to take proactive action and thereby safeguard electrical and electronic equipment if an incoming induced voltage is beyond the threshold.
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