Determining the trend behavior of the wind turbine powertrain using mechanical vibration and seasonal wind data

Knowing the behavior of a wind turbine promotes better monitoring of its operation and maintenance. Wind data analysis is usually used to optimize power generation, nonetheless it is known that the greater the wind intensity, the greater the wind turbine mechanical vibration. ISO 10816 and 16079 offer guidelines for mechanical vibration instrumentation, emphasize the powertrain as it holds significant importance in the entire equipment. The powertrain has ten vibration sensors, and each one has nine features. We show a strong correlation between the features, the sensors, and between the sensors and the wind data. It can simplify the monitoring system, building a single key performance indicator (KPI) per powertrain using principal component analysis (PCA). We use this KPI for two further actions. First, we calculate the wind from this KPI by regression. If the regressed wind corresponds to the measured one, we can classify the vibration behavior as healthy or abnormally. A reduction in accuracy would show that something has changed and needs evaluation. Second, considering the wind forecast for a time window, we establish whether powertrain vibration will be compatible with healthy operation. Long Short-Term Memory neural network (LSTM) and extreme Gradient Boosting (XGBoost) methods do our regression and prediction tasks. Our results show adequate accuracy for identifying trends and therefore composing alarms in a SCADA system, for example. Our framework contributes to a better monitoring system, as it guides decision-making regarding the operation and maintenance of the wind turbine considering the seasonal behavior of the wind. • There is a strong correlation over.95 between the mechanical vibration sensors of a wind turbine powertrain. • It is possible to get the wind trend by regression of these mechanical vibrations. • The difference between regressed and measured wind can show the powertrain's health. • Knowing wind forecast, one can predict the powertrain vibration behavior.

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Publication Details

Journal
Energy Reports
Published
2024-12-13
DOI
https://doi.org/10.1016/j.egyr.2024.12.019
Citations
3
Primary Topic
Vehicle Noise and Vibration Control
Type
article
Field-Weighted Citation Impact
0.61
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article

Determining the trend behavior of the wind turbine powertrain using mechanical vibration and seasonal wind data

Gabriel Guilherme Bacca Ferri, Bruno Carmo, Renato M. Monaro, Tiago Kaoru Matsuo et al.
3 citations
Energy Reports
Vehicle Noise and Vibration Control
0.61
article

Determining the trend behavior of the wind turbine powertrain using mechanical vibration and seasonal wind data

Gabriel Guilherme Bacca Ferri, Bruno Carmo, Renato M. Monaro, Tiago Kaoru Matsuo, Maurício B. C. Salles, Sérgio Luciano Ávila, Bruno Panerai Velloso, Ryuji Tominaga
article en
3 citations

Abstract

Knowing the behavior of a wind turbine promotes better monitoring of its operation and maintenance. Wind data analysis is usually used to optimize power generation, nonetheless it is known that the greater the wind intensity, the greater the wind turbine mechanical vibration. ISO 10816 and 16079 offer guidelines for mechanical vibration instrumentation, emphasize the powertrain as it holds significant importance in the entire equipment. The powertrain has ten vibration sensors, and each one has nine features. We show a strong correlation between the features, the sensors, and between the sensors and the wind data. It can simplify the monitoring system, building a single key performance indicator (KPI) per powertrain using principal component analysis (PCA). We use this KPI for two further actions. First, we calculate the wind from this KPI by regression. If the regressed wind corresponds to the measured one, we can classify the vibration behavior as healthy or abnormally. A reduction in accuracy would show that something has changed and needs evaluation. Second, considering the wind forecast for a time window, we establish whether powertrain vibration will be compatible with healthy operation. Long Short-Term Memory neural network (LSTM) and extreme Gradient Boosting (XGBoost) methods do our regression and prediction tasks. Our results show adequate accuracy for identifying trends and therefore composing alarms in a SCADA system, for example. Our framework contributes to a better monitoring system, as it guides decision-making regarding the operation and maintenance of the wind turbine considering the seasonal behavior of the wind. • There is a strong correlation over.95 between the mechanical vibration sensors of a wind turbine powertrain. • It is possible to get the wind trend by regression of these mechanical vibrations. • The difference between regressed and measured wind can show the powertrain's health. • Knowing wind forecast, one can predict the powertrain vibration behavior.

Energy ReportsVol. 13
Universidade de São Paulo (BR), Universidade Federal de Santa Catarina (BR), Fundação de Amparo à Pesquisa e Inovação do Estado de Santa Catarina (BR), Instituto Federal de Educação, Ciência e Tecnologia de Santa Catarina (BR)
Affordable and clean energy
Openalex Percentile: Top 32%
Vehicle Noise and Vibration Control
0.61
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