Unverified paper record
Classification Of Papaya Leaf Diseases Using The Convolutional Neural Network Method With The Mobilenetv3 Architecture
Jurnal Media Computer Science · 23 Jul 2026 · 10.37676/jmcs.v5i3.11352
Abstract
This study aims to develop a classification system for papaya leaf diseases based on digital image processing using the Convolutional Neural Network (CNN) method with the MobileNetV3 architecture. The background of this research is the manual process of identifying papaya leaf diseases by farmers, which is often inefficient and prone to misdiagnosis. The research method adopts a software engineering approach using the Agile development model, allowing iterative and flexible system development. The dataset consists of papaya leaf images categorized into three classes: curl, ringspot, and healthy, obtained from field observations and secondary datasets. The data were processed through preprocessing stages before being used to train the CNN model. The results indicate that the best model was achieved using a learning rate of 0.001 and 30 epochs, with a validation accuracy of 95.56% and a testing accuracy of 88.89%. The model demonstrates high confidence in classifying images, particularly for the curl and healthy classes. However, the confusion matrix reveals that the model's performance on the ringspot class remains relatively low due to a high misclassification rate. Overall, the developed system is capable of automatically identifying papaya leaf diseases and has strong potential for implementation as an Android-based application to support early detection and decision-making in plant care.
Plant phenotyping relevance
パパイヤ葉の画像から病害状態を推定するCNN分類手法の開発・評価が研究の中心であり、植物表現型計測に該当する。
abstractThis study aims to develop a classification system for papaya leaf diseases based on digital image processing using the Convolutional Neural Network (CNN) method with the MobileNetV3 architecture.
abstractThe dataset consists of papaya leaf images categorized into three classes: curl, ringspot, and healthy
abstractThe results indicate that the best model was achieved using a learning rate of 0.001 and 30 epochs, with a validation accuracy of 95.56% and a testing accuracy of 88.89%.
Code and data availability
The paper describes a papaya leaf disease image dataset (primary smartphone images plus secondary images from Kaggle) and a MobileNetV3 classification model, but provides no public URL, deposit, or availability statement for the dataset, code, or trained model. All URLs in the article are citations to unrelated prior工作
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