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研究生: 黃仲廷
Huang, Zhong-Ting
論文名稱: 應用支持向量機與類神經網路於三相感應馬達軸承故障診斷系統
Application of Support Vector Machine and Neural Network for Bearing Fault Diagnosis System of Three Phase Induction Motors
指導教授: 陳建富
Chen, Jiann-Fuh
學位類別: 碩士
Master
系所名稱: 電機資訊學院 - 電機工程學系
Department of Electrical Engineering
論文出版年: 2019
畢業學年度: 107
語文別: 英文
論文頁數: 67
中文關鍵詞: 感應馬達故障診斷加速度計支持向量機類神經網路
外文關鍵詞: Induction motor, fault diagnosis, accelerometer, support vector machines, neural network
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  • 現今馬達廣泛應用於不同類型之工業領域,是不可缺少的設備之一。但馬達發生故障時,會導致巨大的財物損失。本論文主要透過不同特徵及分類器來探討三相感應馬達軸承故障診斷系統辨識率。實驗以一個15瓩三相感應馬達作為實驗對象,設計五種不同軸承狀態,包含健康及四種故障類別。利用主成分分析法及獨立成分分析法特徵選取,並且使用支持向量機及類神經網路來辨識不同的故障。透過不同特徵與分類器間交叉比對並找出辨識率最高的方法,實驗結果顯示透過主成分分析法與類神經網路的方式可使系統擁有最佳辨識率,其三軸辨識率最高可達97.33%。

    Nowadays, induction motors have been used to different types of industry applications in factory. And motors are indispensable equipment in our life. When motors are out of work, it will bring us huge financial lost. This thesis mainly explores the recognition rate of three-phase induction motor bearing fault diagnosis system through different features and classifiers. A 15kW three-phase induction motor is used as the experimental object. And, five different bearing states are designed, including health and four fault conditions. Features are selected through principal component analysis and independent component analysis. Support vector machines and neural networks are used to identify different faults. The highest recognition rat can be founded out through the cross comparison of different features and classifiers. The experimental results show that the system have the best recognition rate through the principal component analysis method and the neural network, and the maximum recognition rate of the three axes can reach 97.33%.

    Chinese Abstract III English Abstract IV Acknowledgement V Contents VI List of Figures VIII List of Tables X Chapter 1 Introduction 1 1.1 Background and Motivation 1 1.2 The Organization of the Thesis 4 Chapter 2 Theoretical Analysis of Classification 5 2.1 Fast Fourier Transform 5 2.2 Dimension Reduction 7 2.2.1 Principal Component Analysis 7 2.2.2 Independent Component Analysis 10 2.3 K-Fold Cross-Validation 14 2.4 Support Vector Machine 15 2.4.1 Principle of Support Vector Machine 15 2.4.2 Multi-Class Classification 20 2.5 Artificial Neural Network 21 2.5.1 Biological Neurons 21 2.5.2 Artificial Neuron 22 2.5.3 Back Propagation Network 24 2.5.4 Algorithm of BPN 25 Chapter 3 Experimental Method of Classification 28 3.1 Measurement System 28 3.2 Types of Bearing Fault 31 3.3 Data Pre-Processing 32 3.4 SVM Diagnosis System 34 3.5 BPN Diagnosis System 36 Chapter 4 Experimental Results and Discussion 37 4.1 Database of Experiments 37 4.2 SVM Classification Result 38 4.2.1 System Recognition Rate with PCA Feature Selection 39 4.2.2 System Recognition Rate with ICA Feature Selection 42 4.3 BPN Classification Result 45 4.4 Comparison and Discussion 57 Chapter 5 Conclusions and Future Works 59 5.1 Conclusions 59 5.2 Future Works 60 References 61

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