利用 HNR 和高斯直觉贝叶斯对无人机螺旋桨损坏进行声学诊断

IF 1.2 4区 工程技术 Q3 ENGINEERING, AEROSPACE Aircraft Engineering and Aerospace Technology Pub Date : 2024-07-29 DOI:10.1108/aeat-05-2024-0155
Bahadır Cinoğlu
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引用次数: 0

摘要

本研究的目的是根据在试验台上不同推力条件下运行的无人驾驶飞行器(UAV)螺旋桨的声学记录来确定螺旋桨的损坏情况。螺旋桨损坏对于固定翼无人机维持安全飞行尤为重要。螺旋桨的声学特性随螺旋桨损坏程度的不同而变化。首先,通过在三种不同推力下操作五种不同的损坏螺旋桨和未损坏螺旋桨获得声音记录。然后,对这些音频记录应用谐噪比(HNR)特征提取技术。结果根据受损和未受损螺旋桨声学数据训练的模型的性能结果获得了 96.19% 的高召回值。精确度值为 73.92%,属于中等水平。模型的总体精确度值为 81.24%,可视为一般性能。F1 得分为 83.76%,它提供了对模型精确度和召回值的平衡衡量。 实际意义这项研究包括利用从麦克风获得的声学数据诊断无人机螺旋桨损坏的可靠方法,并允许识别不同损坏的螺旋桨。利用这种方法,可以降低飞行故障的风险,并在无人机螺旋桨出现问题之前将其解决,从而降低维护成本。原创性/价值本研究介绍了一种利用 HNR 特征提取技术和高斯奈维贝叶斯分类方法诊断无人机螺旋桨损坏的新方法。该研究是使用 HNR 和高斯奈何贝叶斯的先驱,证明了其在通过螺旋桨损坏增强无人机安全性方面的有效性。此外,这种方法通过声学信号处理和机器学习之间的桥梁作用,有助于提高无人机的运行可靠性。
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Acoustic-based diagnostics for UAV propeller damage using HNR and Gaussian Naive Bayes

Purpose

The purpose of this study is to determine propeller damage based on acoustic recordings taken from unmanned aerial vehicle (UAV) propellers operated at different thrust conditions on a test bench. Propeller damage is especially critical for fixed-wing UAVs to sustain a safe flight. The acoustic characteristics of the propeller vary with different propeller damages.

Design/methodology/approach

For the research, feature extraction methods and machine learning techniques were used during damage detection from propeller acoustic data. First of all, sound recordings were obtained by operating five different damaged propellers and undamaged propellers under three different thrusts. Afterwards, the harmonic-to-noise ratio (HNR) feature extraction technique was applied to these audio recordings. Finally, model training and validation were performed by applying the Gaussian Naive Bayes machine learning technique to create a diagnostic approach.

Findings

A high recall value of 96.19% was obtained in the performance results of the model trained according to damaged and undamaged propeller acoustic data. The precision value was 73.92% as moderate. The overall accuracy value of the model, which can be considered as general performance, was obtained as 81.24%. The F1 score has been found as 83.76% which provides a balanced measure of the model’s precision and recall values.

Practical implications

This study include provides solid method to diagnose UAV propeller damage using acoustic data obtain from the microphone and allows identification of differently damaged propellers. Using that, the risk of in-flight failures can be reduced and maintenance costs can be lowered with addressing the occurred problems with UAV propeller before they worsen.

Originality/value

This study introduces a novel method to diagnose damaged UAV propellers using the HNR feature extraction technique and Gaussian Naive Bayes classification method. The study is a pioneer in the use of HNR and the Gaussian Naive Bayes and demonstrates its effectiveness in augmenting UAV safety by means of propeller damages. Furthermore, this approach contributes to UAV operational reliability by bridging the acoustic signal processing and machine learning.

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来源期刊
Aircraft Engineering and Aerospace Technology
Aircraft Engineering and Aerospace Technology 工程技术-工程:宇航
CiteScore
3.20
自引率
13.30%
发文量
168
审稿时长
8 months
期刊介绍: Aircraft Engineering and Aerospace Technology provides a broad coverage of the materials and techniques employed in the aircraft and aerospace industry. Its international perspectives allow readers to keep up to date with current thinking and developments in critical areas such as coping with increasingly overcrowded airways, the development of new materials, recent breakthroughs in navigation technology - and more.
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