Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection

This paper introduces an innovative approach, Deep Multiscale Soft-Threshold Support Vector Data Description (DMS-SVDD), designed for the detection of anomalies and prediction of faults in heavy-duty gas turbine generator sets (GENSETs). The model combines a support vector data description (SVDD) wi...

Full description

Saved in:
Bibliographic Details
Main Authors: Zhang Kun, Li Hongren, Wang Xin, Xie Daxing, Sun Xiaokai
Format: Article
Language:English
Published: Wiley 2024-01-01
Series:Shock and Vibration
Online Access:http://dx.doi.org/10.1155/2024/3374107
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1832553059555737600
author Zhang Kun
Li Hongren
Wang Xin
Xie Daxing
Sun Xiaokai
author_facet Zhang Kun
Li Hongren
Wang Xin
Xie Daxing
Sun Xiaokai
author_sort Zhang Kun
collection DOAJ
description This paper introduces an innovative approach, Deep Multiscale Soft-Threshold Support Vector Data Description (DMS-SVDD), designed for the detection of anomalies and prediction of faults in heavy-duty gas turbine generator sets (GENSETs). The model combines a support vector data description (SVDD) with a deep autoencoder backbone network framework, integrating a multiscale convolutional neural network (M) and soft-threshold activation network (S) into the Deep-SVDD framework. In comparison with conventional methods, such as One-Class Support Vector Machine (OCSVM) and autoencoder (AE), DMS-SVDD demonstrates improvements in accuracy (by 22.94%), recall (by 32%), F1 score (by 12.02%), and smoothness (by 39.15%). The model excels particularly in feature extraction, denoising, and early fault detection, offering a proactive strategy for maintenance. Furthermore, the DMS-SVDD demonstrated enhanced training efficiency with a reduction in the convergence rounds by 66% and overall training times by 34.13%. The study concludes that DMS-SVDD presents a robust and efficient solution for gas turbine anomaly detection, with practical advantages for decision support in turbine maintenance. Future research could explore additional refinements and applications of the DMS-SVDD model across diverse industrial contexts.
format Article
id doaj-art-5b8ba4aec7f742a6a1c1b297f8483621
institution Kabale University
issn 1875-9203
language English
publishDate 2024-01-01
publisher Wiley
record_format Article
series Shock and Vibration
spelling doaj-art-5b8ba4aec7f742a6a1c1b297f84836212025-02-03T05:56:54ZengWileyShock and Vibration1875-92032024-01-01202410.1155/2024/3374107Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly DetectionZhang Kun0Li Hongren1Wang Xin2Xie Daxing3Sun Xiaokai4Huadian Electric Power Research Institute Co., Ltd.Huadian Electric Power Research Institute Co., Ltd.Huadian Electric Power Research Institute Co., Ltd.Huadian Electric Power Research Institute Co., Ltd.Huadian Electric Power Research Institute Co., Ltd.This paper introduces an innovative approach, Deep Multiscale Soft-Threshold Support Vector Data Description (DMS-SVDD), designed for the detection of anomalies and prediction of faults in heavy-duty gas turbine generator sets (GENSETs). The model combines a support vector data description (SVDD) with a deep autoencoder backbone network framework, integrating a multiscale convolutional neural network (M) and soft-threshold activation network (S) into the Deep-SVDD framework. In comparison with conventional methods, such as One-Class Support Vector Machine (OCSVM) and autoencoder (AE), DMS-SVDD demonstrates improvements in accuracy (by 22.94%), recall (by 32%), F1 score (by 12.02%), and smoothness (by 39.15%). The model excels particularly in feature extraction, denoising, and early fault detection, offering a proactive strategy for maintenance. Furthermore, the DMS-SVDD demonstrated enhanced training efficiency with a reduction in the convergence rounds by 66% and overall training times by 34.13%. The study concludes that DMS-SVDD presents a robust and efficient solution for gas turbine anomaly detection, with practical advantages for decision support in turbine maintenance. Future research could explore additional refinements and applications of the DMS-SVDD model across diverse industrial contexts.http://dx.doi.org/10.1155/2024/3374107
spellingShingle Zhang Kun
Li Hongren
Wang Xin
Xie Daxing
Sun Xiaokai
Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
Shock and Vibration
title Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
title_full Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
title_fullStr Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
title_full_unstemmed Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
title_short Deep Multiscale Soft-Threshold Support Vector Data Description for Enhanced Heavy-Duty Gas Turbine Generator Sets’ Anomaly Detection
title_sort deep multiscale soft threshold support vector data description for enhanced heavy duty gas turbine generator sets anomaly detection
url http://dx.doi.org/10.1155/2024/3374107
work_keys_str_mv AT zhangkun deepmultiscalesoftthresholdsupportvectordatadescriptionforenhancedheavydutygasturbinegeneratorsetsanomalydetection
AT lihongren deepmultiscalesoftthresholdsupportvectordatadescriptionforenhancedheavydutygasturbinegeneratorsetsanomalydetection
AT wangxin deepmultiscalesoftthresholdsupportvectordatadescriptionforenhancedheavydutygasturbinegeneratorsetsanomalydetection
AT xiedaxing deepmultiscalesoftthresholdsupportvectordatadescriptionforenhancedheavydutygasturbinegeneratorsetsanomalydetection
AT sunxiaokai deepmultiscalesoftthresholdsupportvectordatadescriptionforenhancedheavydutygasturbinegeneratorsetsanomalydetection