Audible Noise Evaluation in Wind Turbines Through Artificial Intelligence Techniques

In recent years, wind power has become a more attractive alternative energy source for overcoming environmental issues. Predictive maintenance is essential for wind power devices to ensure that these systems work reliably and with sufficient availability. This paper presents a method to work around failure detection in wind turbines using the sound emitted from their components. The proposed Artificial Intelligence (AI) model is based on unsupervised learning and image processing, through which the machine learning model learns to identify spectrograms from wind turbines under healthy conditions. The reconstruction of current data determines whether the input data have an uncommon noise, which translates into a possibility of failure or an effective one. The uncommon data are sent to a specialist network, which, through supervising learning, identifies a failure event and alerts operators to possible problems that the wind turbine could pass through, helping with preventive maintenance. The model offered satisfactory results in five tested wind turbines, in which some specific faults known by the operators were captured through the low similarity between the reconstructed data and the input. Additionally, this application could be extended to similar applications in industrial machinery within the scope of audible noises in rotative machine mechanisms.

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Publication Details

Journal
Sensors
Published
2025-02-28
DOI
https://doi.org/10.3390/s25051492
Citations
3
Primary Topic
Machine Fault Diagnosis Techniques
Type
article
Field-Weighted Citation Impact
3.64
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article

Audible Noise Evaluation in Wind Turbines Through Artificial Intelligence Techniques

I. Molina, William Rodrigues Silva, Juliano Emir Nunes Masson, M. F. Silva et al.
3 citations
Sensors
Machine Fault Diagnosis Techniques
3.64
article

Audible Noise Evaluation in Wind Turbines Through Artificial Intelligence Techniques

I. Molina, William Rodrigues Silva, Juliano Emir Nunes Masson, M. F. Silva, M. F. Santos, Gabriel Miguel Castro Martins
article en
3 citations

Abstract

In recent years, wind power has become a more attractive alternative energy source for overcoming environmental issues. Predictive maintenance is essential for wind power devices to ensure that these systems work reliably and with sufficient availability. This paper presents a method to work around failure detection in wind turbines using the sound emitted from their components. The proposed Artificial Intelligence (AI) model is based on unsupervised learning and image processing, through which the machine learning model learns to identify spectrograms from wind turbines under healthy conditions. The reconstruction of current data determines whether the input data have an uncommon noise, which translates into a possibility of failure or an effective one. The uncommon data are sent to a specialist network, which, through supervising learning, identifies a failure event and alerts operators to possible problems that the wind turbine could pass through, helping with preventive maintenance. The model offered satisfactory results in five tested wind turbines, in which some specific faults known by the operators were captured through the low similarity between the reconstructed data and the input. Additionally, this application could be extended to similar applications in industrial machinery within the scope of audible noises in rotative machine mechanisms.

SensorsVol. 25(5)
Federal Center for Technological Education of Minas Gerais (BR)
Affordable and clean energy
Openalex Percentile: Top 8%
Machine Fault Diagnosis Techniques
3.64
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