基于神经网络的工业部件分类识别方案

A.R. McNeil, T. Sarkodie-Gyan
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引用次数: 2

摘要

本文概述了一种通过在形状质心和每个边界像素之间生成欧几里得距离的矢量序列来表示工业部件轮廓的方法,该方法是平移不变性的,并且可以在需要时显示比例和旋转不变性。该序列可以被重新采样以形成一个合适的输入向量用于人工神经网络(ANN)。已经实现了三种不同的人工神经网络拓扑:多层感知器、学习向量量化网络和混合自组织映射。这种表示工业部件的方法已被用于比较作为基于形状和尺寸公差的分类器实现的人工神经网络体系结构。这种方法的一些缺点已被突出;最重要的是识别一个唯一的序列起点,这对旋转不变性至关重要。另一个问题可能是由于人工神经网络在处理噪声时固有的鲁棒性与分类相似但显示细微尺寸差异的组件之间的冲突。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A neural network based recognition scheme for the classification of industrial components
This paper outlines a method for representing the silhouettes of industrial components by generating a vector sequence of Euclidean distances between the shape centroid and each boundary pixel, which is translation invariant and can exhibit scale and rotation invariance if required. The sequence can be re-sampled to form a suitable input vector for an artificial neural network (ANN). Three different ANN topologies have been implemented: the multilayer perceptron, a learning vector quantisation network and hybrid self organising map. This method of representing industrial components has been used to compare the ANN architectures when implemented as classifiers based on shape and dimensional tolerance. A number of shortcomings with this methodology have been highlighted; most importantly the identification of a unique sequence start point, vital for rotation invariance. Another problem may arise due to the conflict between the inherent robustness of ANNs when dealing with noise, and classifying components which are similar but display subtle dimensional differences.<>
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