基于自动编码器的番茄叶病鉴定

S. Saranya, R. Prabavathi, V. D. Brindha, P. Subha, S. Mohanapriya, B. Deepa
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引用次数: 0

摘要

番茄的产量主要影响叶病。使用先进的深度学习技术可以准确地检测到它。最初,自动编码器用于去除噪声作为初始预处理步骤。使用并比较了基于全连接层的简单自编码器、稀疏自编码器、深度全连接自编码器和图像去噪自编码器等各种自编码器。第二步采用深度卷积生成对抗网络(Deep Convolutional Generative Adversarial Network, DCGAN)代替传统的增强方法如平移、旋转、翻转等。由于传统方法泛化效果不佳,因此采用DCGAN来提高精度和泛化效果。最后利用VGG16架构对疾病进行分类。我们还对结果进行了比较,以找出使用和不使用自编码器以及超参数调优的区别。我们提供了这些算法如何工作的详细解释和它们之间的比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Auto encoder Based Tomato Leaf Disease Identification
The yield of tomatoes mainly affects leaf disease. It can be detected accurately using advanced deep learning techniques. Initially Autoencoder is used to remove the noise as an initial preprocessing step. Various autoencoders like Simple autoencoder based on fully-connected layer, sparse autoencoder, deep fully connected autoencoder and image denoising autoencoder are used and compared. As a second step Deep Convolutional Generative Adversarial Network(DCGAN)is used for augmentation purpose instead of traditional augmentation method such as translation, rotation and flip. Since the traditional technique does not result in good generalization DCGAN is used to attain better accuracy and to achieve good generalization results. Finally diseases are classified using VGG16 architecture. We also made a comparison with the results to find out the difference between using with and without autoencoder along with hyperparameter tuning. We provided a detailed explanation of how these algorithms work and comparison between them.
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