A dimension-enhanced residual multi-scale attention framework for identifying anomalous waveforms of fault recorders
•The Phase Adaptive Adjustment method addresses data distortion in power disturbance waveform recordings.•The Gramian Angle Field method converts one-dimensional time series into two-dimensional features.•The Residual Pyramid Squeeze Attention Network enhances feature extraction in this paper. The c...
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Veröffentlicht in: | International journal of electrical power & energy systems 2025-03, Vol.164, p.110377, Article 110377 |
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Format: | Artikel |
Sprache: | eng |
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Zusammenfassung: | •The Phase Adaptive Adjustment method addresses data distortion in power disturbance waveform recordings.•The Gramian Angle Field method converts one-dimensional time series into two-dimensional features.•The Residual Pyramid Squeeze Attention Network enhances feature extraction in this paper.
The continuous introduction of technologies such as distributed generation, wind power, and photovoltaic energy poses challenges to identifying abnormal waveforms in power disturbances. Due to the constant increase in abnormal features, existing waveform recognition schemes for power disturbance abnormalities cannot meet the requirements of high accuracy and reliability. In this paper, a Dimension-Enhanced Residual Multi-Scale Attention Framework for identifying power disturbance abnormal waveforms is proposed. This framework first employs the Phase Adaptive Adjustment (PAA) method to address the phase offset problem of original recording data, then uses the Gramian Angle Field method to perform dimensionality expansion on the data processed by PAA, and finally utilizes the Residual Pyramid Squeeze Attention Network (ResPSANet) for identifying power disturbance abnormal waveforms. Experiments demonstrate that the proposed approach improves the performance of power disturbance abnormal waveform recognition by 10% compared to existing schemes. |
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ISSN: | 0142-0615 |
DOI: | 10.1016/j.ijepes.2024.110377 |