Event Analysis of Pulse-reclosers in Distribution Systems Through Sparse Representation
M. E. Raoufat, A. Taalimi, K. Tomsovic, R. Hay

TL;DR
This paper presents a novel method using sparse representation to analyze pulse-recloser events in distribution systems, enabling fault detection and classification with high accuracy from field data.
Contribution
The paper introduces a sparse representation-based algorithm for online event analysis and fault classification of pulse-reclosers in distribution systems, validated with real field data.
Findings
Effective fault detection and classification using pulse signatures
High accuracy verified with real distribution system data
Enhanced understanding of pulse signature characteristics
Abstract
The pulse-recloser uses pulse testing technology to verify that the line is clear of faults before initiating a reclose operation, which significantly reduces stress on the system components (e.g. substation transformers) and voltage sags on adjacent feeders. Online event analysis of pulse-reclosers are essential to increases the overall utility of the devices, especially when there are numerous devices installed throughout the distribution system. In this paper, field data recorded from several devices were analyzed to identify specific activity and fault locations. An algorithm is developed to screen the data to identify the status of each pole and to tag time windows with a possible pulse event. In the next step, selected time windows are further analyzed and classified using a sparse representation technique by solving an l1-regularized least-square problem. This classification is…
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Taxonomy
TopicsElectricity Theft Detection Techniques · Power System Reliability and Maintenance · Power Systems Fault Detection
