The enhancement of deep learning techniques within the agricultural sector is a very functional tool in exposing plants to detrimental diseases. The classification and detection of crops based on diseases play a critical function in establishing the rate and criteria of production. In summary, the current models focus on a well-advocated singular method for detecting leaf diseases in Solanum lycopersicum, utilizing sophisticated neural networks to bolster agro-industrial sectors. The innovative architecture currently in use combines the traditional machine learning technique of PCA with a tailored deep neural network referred to as PCA DeepNet, in conjunction with the VGG16 model. Additionally, this integrated framework features a Generative Adversarial Network (GAN) to optimize the data pool. The identification mechanism is reinforced by the F-RCNN. As a result, this methodology achieves a categorization precision of 99.60% and a mean accuracy of 98.04%, yielding a commendable Intersection over Union (IOU) value of 0.94 in recognition and classification. Thus, the proposed approach exceeds all other previously reported futuristic solutions.

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Tomato Disease Detection Using VGG16 Over PCA DeepNet to Improve Accuracy

  • J. Devadarshini,
  • Carmel Mary Belinda

摘要

The enhancement of deep learning techniques within the agricultural sector is a very functional tool in exposing plants to detrimental diseases. The classification and detection of crops based on diseases play a critical function in establishing the rate and criteria of production. In summary, the current models focus on a well-advocated singular method for detecting leaf diseases in Solanum lycopersicum, utilizing sophisticated neural networks to bolster agro-industrial sectors. The innovative architecture currently in use combines the traditional machine learning technique of PCA with a tailored deep neural network referred to as PCA DeepNet, in conjunction with the VGG16 model. Additionally, this integrated framework features a Generative Adversarial Network (GAN) to optimize the data pool. The identification mechanism is reinforced by the F-RCNN. As a result, this methodology achieves a categorization precision of 99.60% and a mean accuracy of 98.04%, yielding a commendable Intersection over Union (IOU) value of 0.94 in recognition and classification. Thus, the proposed approach exceeds all other previously reported futuristic solutions.