TWI403748B - Motor Fault Diagnosis Method and Device Based on RBF Information Fusion Technology - Google Patents
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Description
本發明係涉及一種馬達故障診斷方法以及裝置,特別是指一種應用RBF資訊融合技術,具有針對多感測器資訊融合計算之硬體架構,使用RBF多感測器資訊融合計算以加速計算馬達故障診斷效能與正確性之創新設計者。The invention relates to a motor fault diagnosis method and device, in particular to an application RBF information fusion technology, which has a hardware architecture for multi-sensor information fusion calculation, and uses RBF multi-sensor information fusion calculation to accelerate calculation motor fault. An innovative designer of diagnostic performance and correctness.
按,近年來,由於工業發展迅速,系統架構日趨複雜,相對而言,檢修人員找尋系統故障的難度亦隨之增加;因此為了節省檢修的時間,增加其偵測故障點的準確度,檢討並提高生產品質,因而開啟了故障診斷的研究領域。In recent years, due to the rapid development of industry and the increasingly complex system architecture, it is relatively difficult for maintenance personnel to find system faults. Therefore, in order to save time for inspection and increase the accuracy of detecting fault points, review and Improve the quality of production, thus opening up the research field of fault diagnosis.
馬達問世至今約一百多年,為工業的動力之母以及主要的動力來源之一,其結構及功能上已經相當成熟,目前專家學者研發腳步已呈現短期內難有重大突破的局面,但是,使用者卻時常面臨馬達故障的問題,當然,馬達發生故障不外乎是使用不當造成毀損或是本身結構製造不良兩種原因,但由於無法事先掌握與監控馬達即時狀況,當馬達發生故障時,只能等待馬達更新或維修完畢方能解決問題,而期間所造成生產進度停擺、工時延宕落後等情形,顯令使用者遭受重大損失。The motor has been around for more than 100 years. It is one of the mothers of industrial power and one of the main sources of power. Its structure and function are quite mature. At present, the pace of research and development by experts and scholars has shown that it is difficult to make major breakthroughs in the short term, however, The user often faces the problem of motor failure. Of course, the failure of the motor is caused by improper use or damage to the structure. However, when the motor cannot be grasped and monitored in advance, when the motor fails, Only after waiting for the motor to be updated or repaired can the problem be solved, and the production schedule is stopped and the working hours are delayed, which causes the user to suffer heavy losses.
過去馬達故障診斷的研究,大多著墨於各細部位置發生異常振動的診斷分析,忽略了另一個馬達發生故障的重點原因,就是馬達的溫升現象;馬達溫度過高,有散熱效果不佳、電流過大、超過負載等等原因,當發生以上原因時,影響馬達的程度比振動有過之無不及,故顯然必須納入馬達故障診斷項目的其中一環。In the past, the research on motor fault diagnosis mostly focused on the diagnosis and analysis of abnormal vibration in each detail position, ignoring the key cause of the failure of another motor, that is, the temperature rise phenomenon of the motor; the motor temperature is too high, the heat dissipation effect is not good, the current If it is too large, exceeds the load, etc., when the above reasons occur, the degree of affecting the motor is more than the vibration, so it is obviously necessary to be included in one of the motor fault diagnosis items.
有鑑於此,發明人本於多年從事相關產品之製造開發與設計經驗,針對上述之目標,詳加設計與審慎評估後,終得一確具實用性之本發明。In view of this, the inventor has been engaged in the manufacturing development and design experience of related products for many years. After detailed design and careful evaluation, the inventor has finally obtained the practical invention.
本發明之主要目的,係在提供一種應用RBF資訊融合技術之馬達故障診斷方法及裝置,其所欲解決之問題點,係針對如何研發出一種確具理想實用性之新式馬達故障診斷方法及裝置為目標加以思索突破者;本發明解決問題之技術特點,就方法面而言,主要係於馬達結構上設置多類型之感測器;復利用徑向基函數類神經網路(RBFNN)獲取各該感測器之間的函數關係,藉以預測各感測器輸出狀態,並得出一徑向基函數的訓練演算法;再以各感測器的預測信號與實測信號為輸入憑據建立融合檢測模型,復採用表決融合檢測準則以完成馬達故障診斷;而就結構面而言,該馬達故障診斷裝置之構成係包括感測器、網路模組、徑向基函數計算模組以及資訊融合計算模組所構成;藉此設計,本發明主要係利用徑向基函數類神經網路架構來進行資訊融合計算,藉此而能達到加速提昇馬達故障診斷即時性與正確性之實用進步性。The main purpose of the present invention is to provide a motor fault diagnosis method and device using the RBF information fusion technology, and the problem to be solved is to develop a new motor fault diagnosis method and device which has ideal utility. Thinking about the breakthrough of the target; the technical feature of the invention solves the problem, in terms of the method aspect, mainly sets up multiple types of sensors on the motor structure; and uses the radial basis function-like neural network (RBFNN) to obtain each The functional relationship between the sensors is used to predict the output state of each sensor, and a training algorithm of radial basis function is obtained; then the fusion detection is established by using the predicted signals of the sensors and the measured signals as input credentials. The model adopts the voting fusion detection criterion to complete the motor fault diagnosis; and in terms of the structural aspect, the motor fault diagnosis device comprises the sensor, the network module, the radial basis function calculation module and the information fusion calculation The module is constructed; by this design, the invention mainly uses the radial basis function-like neural network architecture to perform information fusion calculation, thereby achieving To the practical advancement of accelerating the immediacy and correctness of motor fault diagnosis.
請參閱第1、2、3圖所示,係本發明應用RBF資訊融合技術之馬達故障診斷方法及裝置之較佳實施例,惟此等實施例僅供說明之用,在專利申請上並不受此結構之限制;所述馬達故障診斷方法係包括:Please refer to the first, second, and third figures, which are preferred embodiments of the motor fault diagnosis method and apparatus using the RBF information fusion technology of the present invention, but the embodiments are for illustrative purposes only, and are not used in patent applications. Limited by this structure; the motor fault diagnosis method includes:
a. 於馬達結構上設置多類型之感測器;所述感測器可包括溫度感測器、振動感測器。a. arranging a plurality of types of sensors on the motor structure; the sensors may include temperature sensors, vibration sensors.
b. 利用徑向基函數類神經網路(RBFNN)獲取該馬達上各該感測器之間的函數關係,藉以預測各該感測器的輸出狀態,並得出一徑向基函數的訓練演算法。b. Using a radial basis function-like neural network (RBFNN) to obtain a functional relationship between the sensors on the motor, thereby predicting the output state of each of the sensors, and obtaining a radial basis function training Algorithm.
c. 以各該感測器的預測信號與實測信號為輸入憑據,建立一融合檢測模型,以進行資料融合計算,復採用表決融合檢測準則以完成馬達故障診斷。c. Using the predicted signal and the measured signal of each sensor as input credentials, a fusion detection model is established to perform data fusion calculation, and the voting fusion detection criterion is used to complete the motor fault diagnosis.
其中,所述馬達故障診斷項目,係可包括故障感測器定址、故障類型識別、故障程度判決和故障感測器正常輸出估計等項目。The motor fault diagnosis item may include items such as fault sensor addressing, fault type identification, fault degree judgment, and fault sensor normal output estimation.
接著,就本發明所揭應用RBF資訊融合技術之馬達故障診斷裝置而言,請參第2圖所示,係包括下述構成:複數感測器10,藉以感測馬達05結構之不同運作狀態;所述感測器可包括溫度感測器11、振動感測器12。Next, the motor fault diagnosis device using the RBF information fusion technology disclosed in the present invention, as shown in FIG. 2, includes the following components: a complex sensor 10 for sensing different operating states of the motor 05 structure. The sensor may include a temperature sensor 11 and a vibration sensor 12.
一網路模組20,係使用網路介面以傳送或接收各該感測器10所得資訊;一徑向基函數計算模組30,係於一嵌入式集成開發環境(NIOS IDE)上實作徑向基函數類神經網路(RBFNN)演算法,並利用C2H編譯器將其轉換為硬體加速計算;一資訊融合計算模組40,係用以處理資訊層次、資訊融合方法過程及其相關數據;藉此,該馬達故障診斷裝置能夠於嵌入式處理平台上實作徑向基函數計算,並利用SOPC可程式化系統晶片方法設計資訊融合於處理的資訊層次、資訊融合方法。A network module 20 uses a network interface to transmit or receive information obtained by each of the sensors 10; a radial basis function calculation module 30 is implemented on an embedded integrated development environment (NIOS IDE) Radial Basis Function Neural Network (RBFNN) algorithm, and convert it into hardware acceleration calculation using C2H compiler; an information fusion computing module 40 is used to process information hierarchy, information fusion method process and related Data; thereby, the motor fault diagnosis device can implement radial basis function calculation on the embedded processing platform, and utilize the SOPC programmable system chip method to design information fusion into the processed information level and information fusion method.
本發明主要核心設計在於應用無線感測網路實現對馬達振動及溫升狀態的檢測,由於無線感測網路架設容易,可於馬達的不同部位架設數個感測器10,各感測器10將振動及溫升的訊號傳回電腦,由電腦進行快速傅立葉運算後轉換成頻域信號,將此頻域信號與自行建立的故障類型進行比對,並經隸屬度函數分級後,再以徑向基函數類神經網路推理完成診斷,最後,將診斷結果具體明確顯示於電腦上供管理者查看,利用類神經網路具有自動學習、經驗累積、推理聯想及歸納判斷的特殊能力,俾可有效提高馬達故障診斷的快速性及準確性,達到掌握、監控馬達即時狀況之功能與實用進步性。The main core design of the invention is to apply the wireless sensing network to detect the vibration and temperature rise of the motor. Since the wireless sensing network is easy to set up, several sensors 10 can be set up in different parts of the motor, and the sensors are respectively 10 The signal of vibration and temperature rise is transmitted back to the computer, and the computer performs fast Fourier operation and converts into a frequency domain signal, and compares the frequency domain signal with the self-established fault type, and after being classified by the membership function, The radial basis function-like neural network inference completes the diagnosis. Finally, the diagnosis results are clearly displayed on the computer for the administrator to view. The neural network has the special ability of automatic learning, experience accumulation, inference association and inductive judgment. It can effectively improve the speed and accuracy of motor fault diagnosis, and achieve the function and practical progress of mastering and monitoring the instantaneous condition of the motor.
其中,徑向基底函數類神經網路(Raidal Basis Function Neural Network,簡稱RBFNN),亦稱為輻狀基底函數類神經網路,其特質主要是在於模擬大腦皮質層軸突的局部調整功能,具備相當良好的映射能力,其架構類似多層感知器(Multilayer Perceptron,簡稱MLP),具有一層輸入層,一層隱藏層以及一層輸出層,屬於類神經網路的系統架構中的多層前饋式類神經網路(MultilayerFeedforward Networks),其優勢在於可大量減少學習過程的時間,徑向基底函數類神經網路在學習過程中一般是採用兩階段式的學習法則,及前階段訓練是採用非監督式學習(Supervised Learning),後階段訓練則為監督式學習方法(Unsupervised Learning),所謂的監督式學習是在學習過程中,給予類神經網路訓練範例,每個訓練範例中皆同時包含輸入項和目標輸出值(如第4圖之上圖所揭),這個目標輸出值即扮演著老師的角色,在整個訓練過程中不斷督促類神經網路修正權重值,藉由一次又一次地重新調整網路權重值的強弱,來降低網路實際輸出值和給定的目標輸出值間的差距,直至差距小於一定的臨界值或權重值不再改變才會停止訓練。而非監督式學習僅需要提供輸入資訊,而不需要期望輸出資訊,也就是說它不需要網路實際輸出值和目標輸出值間的差距訊息,去改善類神經網路的輸出值,也就是說僅依照輸入資訊的特性便可以去學習及調整權重值(如第4圖之下圖所揭)。Among them, the Radial Basis Function Neural Network (RBFNN), also known as the radial base function neural network, is mainly characterized by the local adjustment function of simulating the axons of the cerebral cortex. Very good mapping capability, its architecture is similar to Multilayer Perceptron (MLP), with one input layer, one hidden layer and one output layer. It is a multi-layer feedforward neural network in the system architecture of neural network. MultilayerFeedforward Networks has the advantage of greatly reducing the learning process time. The radial basis function neural network generally adopts a two-stage learning rule in the learning process, and the pre-stage training uses unsupervised learning ( Supervised Learning), the post-stage training is Unsupervised Learning. The so-called supervised learning is to give a neural network training paradigm in the learning process. Each training paradigm contains both input and target output. The value (as shown in the figure above in Figure 4), this target output value plays the role of the teacher Color, constantly urging the neural network to correct the weight value throughout the training process, by re-adjusting the strength of the network weight value again and again, to reduce the gap between the actual output value of the network and the given target output value, Training will not stop until the gap is less than a certain threshold or the weight value is no longer changed. Non-supervised learning only needs to provide input information, and does not need to expect output information, that is, it does not need the gap between the actual output value of the network and the target output value to improve the output value of the neural network, that is, It is said that the weight value can be learned and adjusted according to the characteristics of the input information (as shown in the figure below in Figure 4).
而所謂類神經網路,其架構如第5圖所示,共有三層,由左至右依序分別為輸入層、隱藏層及輸出層,若以網路連結架構區分而言,係屬於前饋式類神經網路(Feedforward)中的多層前饋式類神經網路,徑向基底函數類神經網路的概念是建構許許多多的徑向基底函數,以函數逼近法(Curve Fitting)找到輸入與輸出間的映射關係。一般來說,徑向基底函數類神經網路中的隱藏層神經元的徑向基底函數,其型式約可分為七種類型,本發明係使用高斯函數(GaussianFunction)做為隱藏層神經元的函數,並以N個維度的輸入值、M個神經元的隱藏層和一個輸出值作為徑向基底函數類神經網路的架構和演算法的表示。The so-called neural network, the structure of which is shown in Figure 5, has three layers, from left to right, respectively, the input layer, the hidden layer and the output layer. The multi-layer feedforward neural network in the feed-like neural network (Feedforward), the concept of the radial basis function-like neural network is to construct a large number of radial basis functions, found by the function approach method (Curve Fitting) The mapping between input and output. In general, the radial basis function of a hidden layer neuron in a radial basis function-like neural network can be divided into seven types. The present invention uses a Gaussian function as a hidden layer neuron. The function, with the input values of N dimensions, the hidden layer of M neurons, and an output value as representations of the architecture and algorithm of the radial basis function-like neural network.
其中,所述「資訊融合」的手段,是將來自某一目標的多源資訊加以智慧化合成產生比單一信源更精確更完全的估計和判決通過多感測器資訊融合,可以擴大時空覆蓋範圍,增加置信度,改善檢測系統的可靠性;根據系統所處理的資訊層次資訊融合方法一般分為資訊層融合、特徵層融合和決策層融合3種。資訊融合的具體實現技術很多,本創作應用神經網路分別對特徵層融合、決策層融合兩種方法進行研究。Among them, the means of "information fusion" is to intelligently synthesize multi-source information from a certain target to generate more accurate and complete estimation and judgment than a single source through multi-sensor information fusion, which can expand the space-time coverage. Range, increase confidence, improve the reliability of the detection system; according to the information level information fusion method handled by the system, it is generally divided into three types: information layer fusion, feature layer fusion and decision layer fusion. There are many specific implementation technologies for information fusion. This author uses neural networks to study the two methods of feature layer fusion and decision layer fusion.
本發明將類神經網路應用於無線感測網路的資料融合應用,使得系統可靈活、準確、減少冗餘資訊和低成本地進行無線資料獲取與傳輸,並且提高了資料獲取系統的抗干擾能力和效率。且本發明在對資料的融合計算中,並提供了一種自適應學習的神經網路整合演算法。The invention applies the neural network to the data fusion application of the wireless sensing network, so that the system can flexibly, accurately, reduce redundant information and low-cost wireless data acquisition and transmission, and improve the anti-interference of the data acquisition system. Ability and efficiency. Moreover, the present invention provides a neural network integration algorithm for adaptive learning in the fusion calculation of data.
本發明主要是利用最新的徑向基底函數類神經網路來進行資訊融合計算將可加速馬達故障診斷的即時性與正確性。近年來無線感測網路蓬勃發展,資訊融合計算被廣泛應用在多感測器網路環境設計上,利用傳統資訊處理方式來進行馬達故障診斷會非常緩慢,本希望在無線感測網路的平台上實作徑向基底函數類神經網路計算,並應用於馬達故障診斷,將可提昇馬達故障診斷的效率與正確性。The invention mainly utilizes the latest radial basis function neural network for information fusion calculation to accelerate the immediacy and correctness of motor fault diagnosis. In recent years, wireless sensing networks have flourished. Information fusion computing is widely used in the design of multi-sensor network environments. It is very slow to use traditional information processing methods to diagnose motor faults. I hope that in wireless sensing networks. The calculation of radial basis function neural network on the platform and application to motor fault diagnosis will improve the efficiency and correctness of motor fault diagnosis.
本項發明將可改善目前馬達故障診斷的計算時間,及早完成故障位置與性質的準確度,縮短故障判斷時間,並增強無線多感測器環境之接收訊號能力,可運用於電機電子相關產業中而具有極佳之產業利用性。The invention can improve the calculation time of current motor fault diagnosis, complete the fault position and property accuracy early, shorten the fault judgment time, and enhance the receiving signal capability of the wireless multi-sensor environment, and can be applied to the motor electronic related industry. And has excellent industrial utilization.
上述實施例所揭示者係藉以具體說明本發明,且文中雖透過特定的術語進行說明,當不能以此限定本發明之專利範圍;熟悉此項技術領域之人士當可在瞭解本發明之精神與原則後對其進行變更與修改而達到等效之目的,而此等變更與修改,皆應涵蓋於如后所述之申請專利範圍所界定範疇中。The above embodiments are intended to be illustrative of the present invention, and are not to be construed as limiting the scope of the invention. The principles are changed and modified to achieve an equivalent purpose, and such changes and modifications are to be included in the scope defined by the scope of the patent application as described later.
05...馬達05. . . motor
10...感測器10. . . Sensor
11...溫度感測器11. . . Temperature sensor
12...振動感測器12. . . Vibration sensor
20...網路模組20. . . Network module
30...徑向基函數計算模組30. . . Radial basis function calculation module
40...資訊融合計算模組40. . . Information fusion computing module
第1圖:本發明之馬達故障診斷方法文字方塊圖。Fig. 1 is a block diagram showing the method of motor fault diagnosis according to the present invention.
第2圖:本發明之馬達故障診斷裝置架構簡示圖。Fig. 2 is a schematic view showing the structure of the motor fault diagnosis apparatus of the present invention.
第3圖:本發明之馬達故障診斷方法運作邏輯之文字方塊圖。Fig. 3 is a block diagram showing the operation logic of the motor fault diagnosis method of the present invention.
第4圖:本發明之徑向基底函數類神經網路學習法則之文字方塊圖。Fig. 4 is a block diagram of the text of the radial basis function neural network learning rule of the present invention.
第5圖:本發明之類神經網路架構簡示圖。Figure 5: A simplified diagram of a neural network architecture such as the present invention.
05...馬達05. . . motor
10...感測器10. . . Sensor
11...溫度感測器11. . . Temperature sensor
12...振動感測器12. . . Vibration sensor
20...網路模組20. . . Network module
30...徑向基函數計算模組30. . . Radial basis function calculation module
40...資訊融合計算模組40. . . Information fusion computing module
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| TW201007127A (en) * | 2008-08-06 | 2010-02-16 | Univ Nat Kaohsiung 1St Univ Sc | Robot navigation system |
| TW201020558A (en) * | 2008-11-28 | 2010-06-01 | Ind Tech Res Inst | Method for diagnosing energy consumption of a power plant |
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| US20020013664A1 (en) * | 2000-06-19 | 2002-01-31 | Jens Strackeljan | Rotating equipment diagnostic system and adaptive controller |
| TWI274269B (en) * | 2002-12-02 | 2007-02-21 | Ren-Jiun Shie | Brain wave signal categorizing method and human-machine control system and method driven by brain wave signal |
| TWM351557U (en) * | 2007-12-26 | 2009-02-21 | Shun-Yuan Wang | Gaussian wavelet-based cerebellar model control and driving device for switched reluctance motor |
| TW201007127A (en) * | 2008-08-06 | 2010-02-16 | Univ Nat Kaohsiung 1St Univ Sc | Robot navigation system |
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