Wise-SRNet:通过学习特征图的空间分辨率增强图像分类的新型架构

IF 3.7 4区 计算机科学 Q2 COMPUTER SCIENCE, ARTIFICIAL INTELLIGENCE
Mohammad Rahimzadeh, Soroush Parvin, Amirali Askari, Elnaz Safi, Mohammad Reza Mohammadi
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引用次数: 0

摘要

自卷积神经网络发展以来,主要挑战之一就是如何将提取的特征图连接到最终分类层。VGG 模型在其架构的分类部分使用了两组全连接层,这大大增加了模型的权重数量。ResNet 和下一个深度卷积模型使用全局平均池化层来压缩特征图并将其输送到分类层。虽然使用全局平均池化层可以降低计算成本,但也会导致丢失特征图的空间分辨率,从而降低学习效率。本文旨在用一种名为 Wise-SrNet 的新架构取代 GAP 层,从而解决这一问题。它受到深度卷积思想的启发,旨在处理空间分辨率的同时不增加计算成本。我们使用三个不同的数据集对我们的方法进行了评估,它们分别是英特尔图像分类挑战赛、麻省理工学院室内场景以及 ImageNet 数据集的一部分。我们在 Inception、ResNet 和 DenseNet 系列的几个模型上研究了我们架构的实施。应用我们的架构对提高收敛速度和准确性有显著效果。我们在分辨率为 224224 的图像上进行了实验,在不同的数据集和模型上,Top-1 的准确率提高了 2% 到 8%。在麻省理工学院室内场景数据集的 512512 分辨率图像上运行我们的模型,结果显示 Top-1 准确率提高了 3% 到 26%。我们还将展示 GAP 层在输入图像较大且类别数量较少时的劣势。在这种情况下,我们提出的架构对提高分类结果有很大帮助。代码共享于 https://github.com/mr7495/image-classification-spatial。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Wise-SrNet: a novel architecture for enhancing image classification by learning spatial resolution of feature maps

Wise-SrNet: a novel architecture for enhancing image classification by learning spatial resolution of feature maps

One of the main challenges, since the advancement of convolutional neural networks is how to connect the extracted feature map to the final classification layer. VGG models used two sets of fully connected layers for the classification part of their architectures, which significantly increased the number of models’ weights. ResNet and the next deep convolutional models used the global average pooling layer to compress the feature map and feed it to the classification layer. Although using the GAP layer reduces the computational cost, but also causes losing spatial resolution of the feature map, which results in decreasing learning efficiency. In this paper, we aim to tackle this problem by replacing the GAP layer with a new architecture called Wise-SrNet. It is inspired by the depthwise convolutional idea and is designed for processing spatial resolution while not increasing computational cost. We have evaluated our method using three different datasets they are Intel Image Classification Challenge, MIT Indoors Scenes, and a part of the ImageNet dataset. We investigated the implementation of our architecture on several models of the Inception, ResNet, and DenseNet families. Applying our architecture has revealed a significant effect on increasing convergence speed and accuracy. Our experiments on images with 224224 resolution increased the Top-1 accuracy between 2 to 8% on different datasets and models. Running our models on 512512 resolution images of the MIT Indoors Scenes dataset showed a notable result of improving the Top-1 accuracy within 3 to 26%. We will also demonstrate the GAP layer’s disadvantage when the input images are large and the number of classes is not few. In this circumstance, our proposed architecture can do a great help in enhancing classification results. The code is shared at https://github.com/mr7495/image-classification-spatial.

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来源期刊
Pattern Analysis and Applications
Pattern Analysis and Applications 工程技术-计算机:人工智能
CiteScore
7.40
自引率
2.60%
发文量
76
审稿时长
13.5 months
期刊介绍: The journal publishes high quality articles in areas of fundamental research in intelligent pattern analysis and applications in computer science and engineering. It aims to provide a forum for original research which describes novel pattern analysis techniques and industrial applications of the current technology. In addition, the journal will also publish articles on pattern analysis applications in medical imaging. The journal solicits articles that detail new technology and methods for pattern recognition and analysis in applied domains including, but not limited to, computer vision and image processing, speech analysis, robotics, multimedia, document analysis, character recognition, knowledge engineering for pattern recognition, fractal analysis, and intelligent control. The journal publishes articles on the use of advanced pattern recognition and analysis methods including statistical techniques, neural networks, genetic algorithms, fuzzy pattern recognition, machine learning, and hardware implementations which are either relevant to the development of pattern analysis as a research area or detail novel pattern analysis applications. Papers proposing new classifier systems or their development, pattern analysis systems for real-time applications, fuzzy and temporal pattern recognition and uncertainty management in applied pattern recognition are particularly solicited.
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