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This analysis shows MobileNetV2's edge performance in crop disease classification, indicating potential for scalable applications.
Crop disease classification is critical for global food security, yet deploying accurate deep learning models on resource-constrained edge devices remains challenging. This study systematically compares EfficientNetV2 and MobileNetV2 while proposing an edge-optimised hybrid architecture integrating both with Vision Transformers (ViT). Evaluated on PlantVillage and field-collected images, MobileNetV2 demonstrated superior edge compatibility with 99.0% accuracy, 0.0938 s/image inference speed, minimal resources (30.38MB size), and statistical superiority (z-test p=0.0071). The hybrid model combines MobileNetV2’s texture analysis and Efficient-NetV2’s multiscale detection through a dual-branch architecture enhanced with SE blocks, ViT (16×16 patches), and attention-guided fusion. It achieved 99.5% test accuracy with real-time performance (0.15 s/image) and 97.97% field accuracy via Android deployment. Statistical validation confirmed robustness: Kruskal-Wallis H=597.40 (p<0.05), near-perfect AUC (0.999998), and minimal confidence variance (0.000010). Ablation studies verified architectural efficacy (98.68% accuracy with SE/gating modules). This work advances precision agriculture through a scalable framework unifying hybrid deep learning with edge-compatible deployment.
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Njoroge et al. (2025) studied this question.
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