MobiTran-SE: Hybrid MobileNetV3Small-Transformer architecture with squeeze-and-excitation for tomato leaf disease classification

Diseases affecting tomato leaves represent a major risk to worldwide agricultural output and overall food security. In this study, we propose a innovative, lightweight and efficient deep learning (DL) approach for the classification of tomato leaf disease. Our architecture integrates the MobileNetV3Small backbone to extract multi-level features from input images, while Squeeze-and-Excitation (SE) blocks strengthen the focus on channel-wise features. A key component of our model is the incorporation of a Transformer-based module, which is applied to the fused features to extract long-range spatial interactions and contextual relationships. This hybrid approach enables the model to better distinguish between complex disease patterns in categories. The experimental findings indicate that the proposed model attains a high classification accuracy of 99.02%. The model also exhibits fast convergence and strong generalization, making it highly applicable for real-time deployment and resource-constrained agricultural environments. This work contributes a powerful and efficient solution to intelligent plant disease monitoring in the field of precision agriculture.

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Publication Details

Journal
CTU Journal of Innovation and Sustainable Development
Published
2025-10-16
DOI
https://doi.org/10.22144/ctujoisd.2025.048
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
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article

MobiTran-SE: Hybrid MobileNetV3Small-Transformer architecture with squeeze-and-excitation for tomato leaf disease classification

Nhon Nguyen Thien, Huan Lam Le, Hieu Trung Nguyen, Phuc Pham Tien et al.
CTU Journal of Innovation and Sustainable Development
Smart Agriculture and AI
article

MobiTran-SE: Hybrid MobileNetV3Small-Transformer architecture with squeeze-and-excitation for tomato leaf disease classification

Nhon Nguyen Thien, Huan Lam Le, Hieu Trung Nguyen, Phuc Pham Tien, Hoang-Tu Vo, Kheo Chau Mui, Vuong Nguyen Phuc
article en

Abstract

Diseases affecting tomato leaves represent a major risk to worldwide agricultural output and overall food security. In this study, we propose a innovative, lightweight and efficient deep learning (DL) approach for the classification of tomato leaf disease. Our architecture integrates the MobileNetV3Small backbone to extract multi-level features from input images, while Squeeze-and-Excitation (SE) blocks strengthen the focus on channel-wise features. A key component of our model is the incorporation of a Transformer-based module, which is applied to the fused features to extract long-range spatial interactions and contextual relationships. This hybrid approach enables the model to better distinguish between complex disease patterns in categories. The experimental findings indicate that the proposed model attains a high classification accuracy of 99.02%. The model also exhibits fast convergence and strong generalization, making it highly applicable for real-time deployment and resource-constrained agricultural environments. This work contributes a powerful and efficient solution to intelligent plant disease monitoring in the field of precision agriculture.

CTU Journal of Innovation and Sustainable DevelopmentVol. 17(Special issue: ISDS)
FPT University (VN)
Openalex Percentile: Top 78%
Smart Agriculture and AI
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