Neural Network for Processing Ultrasonic Signals in Flaw Detection Control Systems

A. Grevtseva, Khuan Dominges, Mateo Dominges
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Abstract

The basic methods of non-destructive testing of metallic media and their compounds are considered. The expediency of using ultrasonic testing to identify various types of defects is substantiated. It is shown that, unlike other methods, its application does not lead to the destructive consequences of a material or compounds of metallic materials. It is noted that the principle of operation of ultrasonic devices is based on the analysis of the shape and amplitude of the emitted and reflected waves from the boundary of two media. Based on the established differences in forms and amplitudes, it is possible to identify the presence of defects and determine its type. Decryption of defects is carried out by the person who decides on the danger of the defect. To make a reliable decision, he needs information about the value of the speed of propagation of ultrasound in a specific material. The speed of ultrasound in different materials differs significantly in value. It is also necessary to perform an analysis of the forms of ultrasonic waves. Neural networks make it possible to find solutions to complex problems that require analytical calculations similar to those performed by the human brain. It was found that the use of a neural network for signal processing and calibration of ultrasonic sensors reduces the calibration time. The results of the developed neural network are presented.
探伤控制系统中超声信号处理的神经网络
研究了金属介质及其化合物无损检测的基本方法。利用超声波检测识别各种类型缺陷的方便性得到了证实。结果表明,与其他方法不同,它的应用不会导致材料或金属材料化合物的破坏性后果。注意到超声波装置的工作原理是基于对两种介质边界发射波和反射波的形状和振幅的分析。基于已确定的形式和幅度的差异,可以识别缺陷的存在并确定其类型。缺陷的解密是由判定缺陷危险性的人进行的。为了做出可靠的决定,他需要关于超声波在特定材料中的传播速度值的信息。超声波在不同材料中的传播速度在数值上有显著差异。对超声波的形式进行分析也是必要的。神经网络使解决复杂问题成为可能,这些问题需要类似于人脑的分析计算。研究发现,利用神经网络对超声传感器进行信号处理和标定,可减少标定时间。给出了所开发的神经网络的结果。
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