Crack Location in Wind Turbine Blades Using Vibration Signal and Support Vector Machine

This study introduces a new method to locate cracks in wind turbine blades using the support vector machine algorithm and the tangential vibration signal measured at the root blade in static conditions. The method was implemented in hardware and experimentally validated on 200 W wind turbine blades. The blade conditions were healthy, and transverse cracked at the root, midsection, and tip. The experimental procedure is easy, and only one low-cost piezoelectric accelerometer is needed, which is affordable and straightforward to install. The machine learning technique used requires a small dataset and low computing power. The results show exceptional performance, achieving an accuracy of 99.37% and a precision of 98.77%. This approach enhances the reliability of wind turbine blade monitoring. It provides a robust early detection and maintenance solution, improving operational efficiency and safety in wind energy production. K-nearest neighbors and decision trees are also used for comparison purposes.

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Publication Details

Journal
Vibration
Published
2025-04-21
DOI
https://doi.org/10.3390/vibration8020020
Citations
3
Primary Topic
Structural Health Monitoring Techniques
Type
article
Field-Weighted Citation Impact
2.86

Funders

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article

Crack Location in Wind Turbine Blades Using Vibration Signal and Support Vector Machine

J.B. Robles-Ocampo, Sergio de la Cruz, Juvenal Rodríguez‐Reséndiz, P.Y. Sevilla-Camacho et al.
3 citations
Vibration
Structural Health Monitoring Techniques
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article

Crack Location in Wind Turbine Blades Using Vibration Signal and Support Vector Machine

J.B. Robles-Ocampo, Sergio de la Cruz, Juvenal Rodríguez‐Reséndiz, P.Y. Sevilla-Camacho, Marco-Antonio Zuñiga-Reyes, Edwin Hernández-Estrada
article en
3 citations

Abstract

This study introduces a new method to locate cracks in wind turbine blades using the support vector machine algorithm and the tangential vibration signal measured at the root blade in static conditions. The method was implemented in hardware and experimentally validated on 200 W wind turbine blades. The blade conditions were healthy, and transverse cracked at the root, midsection, and tip. The experimental procedure is easy, and only one low-cost piezoelectric accelerometer is needed, which is affordable and straightforward to install. The machine learning technique used requires a small dataset and low computing power. The results show exceptional performance, achieving an accuracy of 99.37% and a precision of 98.77%. This approach enhances the reliability of wind turbine blade monitoring. It provides a robust early detection and maintenance solution, improving operational efficiency and safety in wind energy production. K-nearest neighbors and decision trees are also used for comparison purposes.

VibrationVol. 8(2)
Autonomous University of Queretaro (MX), Tuxtla Gutierrez Institute of Technology (MX), Tecnológico Nacional de México (MX), Universidad Politécnica de Chiapas (MX)
Consejo Nacional de Ciencia y Tecnología
Openalex Percentile: Top 11%
Structural Health Monitoring Techniques
2.86
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