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DINOV2-FCS: a model for fruit leaf disease classification and severity prediction
Chunhui Bai1,2,3, Lilian Zhang1,2,3, Lutao Gao1,2,3
1College of Big Data, Yunnan Agricultural University, Kunming, China.
This study introduces the DINOV2-Fruit Leaf Classification and Segmentation Model (DINOV2-FCS) for accurate fruit leaf disease assessment. The novel model achieves high accuracy in classifying and predicting disease severity, demonstrating strong generalizability across diverse fruit types.
Area of Science:
- Agricultural Science
- Computer Vision
- Machine Learning
Background:
- Accurate fruit disease severity assessment is vital for optimizing fruit production.
- Current machine learning methods for disease prediction face challenges in accuracy and generalizability.
- Large vision model technology offers potential for improved agricultural applications.
Purpose of the Study:
- To develop an advanced model for fruit leaf disease classification and severity prediction.
- To leverage the DINOV2 visual large vision model for enhanced feature extraction.
- To address limitations in current models regarding accuracy and generalization.
Main Methods:
- Constructed the DINOV2-Fruit Leaf Classification and Segmentation Model (DINOV2-FCS) using the DINOV2 visual large vision model backbone.
- Proposed the Class-Patch Feature Fusion Module (C-PFFM) to integrate local and global features for improved classification of similar leaf spots.
- Introduced Explicit Feature Fusion Architecture (EFFA) and Alterable Kernel Atrous Spatial Pyramid Pooling (AKASPP) to enhance segmentation of fine disease spots.
Main Results:
- Achieved 99.67% accuracy in disease classification and 95.68% accuracy in disease severity classification on a five-fruit dataset.
- Demonstrated strong generalizability with 83.95% mIoU and 95.24% accuracy in disease severity grading across four datasets.
- Outperformed existing state-of-the-art models in both accuracy and generalization capabilities.
Conclusions:
- The DINOV2-FCS model offers a significant advancement in fruit leaf disease classification and severity prediction.
- The model exhibits robust performance and strong generalization, making it suitable for diverse fruit types.
- This research provides a valuable new tool for agricultural disease management and research.
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