A Single Filter CNN Performance for Basic Shape Classification

K. Murata, Masataka Mito, Daisuke Eguchi, Yuichiro Mori, M. Toyonaga
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引用次数: 5

Abstract

IoT cameras and sensors collect images and sensing data from everywhere in the world to transmit them via the Internet. These collected images are stacked into the servers, and an image recognition system on the server, such as CNN (Convolutional Neural Net), mines valuable information. In the near future, when the enormous number of IoTs collect images at various places, these servers would reach an overflow. Hence, if IoTs would send not only images but also analyzed results to the server, it would reduce server loads; however, the conventional CNN is too large to implement this.We propose a single-filter CNN model that can be implemented even ona small IoT. Our CNN model is of minimal configuration with an input layer, an affine transformation layer, a convolution layer, a pooling layer, and a fully connection layer.We evaluate our proposed CNN model with two experiments. First, we check whether it can learn the eleven basic shapes, i.e., a circle, a triangle, a square, etc. Second, we check whether it can classify the basic shapes against their shape reduction and their noise mixture. Results of the first experiment show that our system can classify all the basic shapes perfectly, results of the second experiment show that accuracy depends on the types of filters for both the scaled-shape classification and the inverse-pixel noiseshape classification.
一种用于基本形状分类的CNN单滤波器性能
物联网摄像头和传感器从世界各地收集图像和传感数据,并通过互联网传输。这些收集到的图像被堆叠到服务器中,服务器上的图像识别系统,如CNN(卷积神经网络),挖掘有价值的信息。在不久的将来,当大量的物联网在各地收集图像时,这些服务器将达到溢出。因此,如果物联网不仅发送图像,还发送分析结果到服务器,它将减少服务器负载;然而,传统的CNN太大了,无法实现这一点。我们提出了一种单滤波器CNN模型,即使在小型物联网上也可以实现。我们的CNN模型具有最小配置,包括输入层、仿射变换层、卷积层、池化层和完全连接层。我们用两个实验来评估我们提出的CNN模型。首先,我们检查它是否能学习11种基本形状,即圆形、三角形、正方形等。其次,我们检查它是否可以分类基本形状的形状减少和他们的噪声混合。第一次实验的结果表明,我们的系统可以很好地分类所有的基本形状,第二次实验的结果表明,对于比例形状分类和反像素噪声形状分类,准确率取决于滤波器的类型。
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