An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines

As wind energy proliferates in onshore and offshore applications, it has become significantly important to predict wind turbine downtime and maintain operation uptime to ensure maximal yield. Two types of data systems have been widely adopted for monitoring turbine health condition: supervisory cont...

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Main Authors: Jay Lee, David Siegel, Wenyu Zhao, Liying Su
Format: Article
Language:English
Published: The Prognostics and Health Management Society 2013-01-01
Series:International Journal of Prognostics and Health Management
Subjects:
CMS
Online Access:http://www.phmsociety.org/sites/phmsociety.org/files/phm_submission/2013/ijphm_13_012.pdf
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spelling doaj-11d2d3dad3b74ad8875185939dd35c572021-07-02T14:56:50ZengThe Prognostics and Health Management SocietyInternational Journal of Prognostics and Health Management2153-26482013-01-014Sp24658An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind TurbinesJay LeeDavid SiegelWenyu ZhaoLiying SuAs wind energy proliferates in onshore and offshore applications, it has become significantly important to predict wind turbine downtime and maintain operation uptime to ensure maximal yield. Two types of data systems have been widely adopted for monitoring turbine health condition: supervisory control and data acquisition (SCADA) and condition monitoring system (CMS). Provided that research and development have focused on advancing analytical techniques based on these systems independently, an intelligent model that associates information from both systems is necessary and beneficial. In this paper, a systematic framework is designed to integrate CMS and SCADA data and assess drivetrain degradation over its lifecycle. Information reference and advanced feature extraction techniques are employed to procure heterogeneous health indicators. A pattern recognition algorithm is used to model baseline behavior and measure deviation of current behavior, where a Self-organizing Map (SOM) and minimum quantization error (MQE) method is selected to achieve degradation assessment. Eventually, the computation and ranking of component contribution to the detected degradation offers component-level fault localization. When validated and automated by various applications, the approach is able to incorporate diverse data resources and output actionable information to advise predictive maintenance with precise fault information. The approach is validated on a 3 MW offshore turbine, where an incipient fault is detected well before existing system shuts down the unit. A radar chart is used to illustrate the fault localization result.http://www.phmsociety.org/sites/phmsociety.org/files/phm_submission/2013/ijphm_13_012.pdfwind energyDrivetrain DegradationFault LocalizationCMSSCADA
collection DOAJ
language English
format Article
sources DOAJ
author Jay Lee
David Siegel
Wenyu Zhao
Liying Su
spellingShingle Jay Lee
David Siegel
Wenyu Zhao
Liying Su
An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
International Journal of Prognostics and Health Management
wind energy
Drivetrain Degradation
Fault Localization
CMS
SCADA
author_facet Jay Lee
David Siegel
Wenyu Zhao
Liying Su
author_sort Jay Lee
title An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
title_short An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
title_full An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
title_fullStr An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
title_full_unstemmed An Integrated Framework of Drivetrain Degradation Assessment and Fault Localization for Offshore Wind Turbines
title_sort integrated framework of drivetrain degradation assessment and fault localization for offshore wind turbines
publisher The Prognostics and Health Management Society
series International Journal of Prognostics and Health Management
issn 2153-2648
publishDate 2013-01-01
description As wind energy proliferates in onshore and offshore applications, it has become significantly important to predict wind turbine downtime and maintain operation uptime to ensure maximal yield. Two types of data systems have been widely adopted for monitoring turbine health condition: supervisory control and data acquisition (SCADA) and condition monitoring system (CMS). Provided that research and development have focused on advancing analytical techniques based on these systems independently, an intelligent model that associates information from both systems is necessary and beneficial. In this paper, a systematic framework is designed to integrate CMS and SCADA data and assess drivetrain degradation over its lifecycle. Information reference and advanced feature extraction techniques are employed to procure heterogeneous health indicators. A pattern recognition algorithm is used to model baseline behavior and measure deviation of current behavior, where a Self-organizing Map (SOM) and minimum quantization error (MQE) method is selected to achieve degradation assessment. Eventually, the computation and ranking of component contribution to the detected degradation offers component-level fault localization. When validated and automated by various applications, the approach is able to incorporate diverse data resources and output actionable information to advise predictive maintenance with precise fault information. The approach is validated on a 3 MW offshore turbine, where an incipient fault is detected well before existing system shuts down the unit. A radar chart is used to illustrate the fault localization result.
topic wind energy
Drivetrain Degradation
Fault Localization
CMS
SCADA
url http://www.phmsociety.org/sites/phmsociety.org/files/phm_submission/2013/ijphm_13_012.pdf
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