Research on Apple Tree Leaf Disease Recognition Model Based on Multi Source Data Fusion and Deep Learning

In agriculture, precisely identifying apple leaf diseases is crucial for ensuring high yields. To tackle the opacity of neural networks, we propose a multi - source fusion framework that combines visible - light images and environmental sensors, thereby overcoming the limitations of single - modal data. The interpretable GAM - MFNet utilizes a generalized additive model. It processes structured data and image data through parallel modules, integrating univariate functions with convolutional networks. This design strikes a balance between prediction performance and global/local interpretability by means of feature analysis and prototype matching. Experiments demonstrate an accuracy of 89.99% in identifying five diseases, representing a 4.11% improvement over baselines. Feature visualization reveals that environmental factors such as temperature and humidity interact with lesion textures, highlighting the impacts of microclimate on disease symptoms. This research promotes agricultural diagnosis and provides a scalable and interpretable machine - learning framework for precision farming.

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Publication Details

Published
2025-04-11
DOI
https://doi.org/10.1109/ainit65432.2025.11035076
Primary Topic
Remote Sensing and Land Use
Type
article
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article

Research on Apple Tree Leaf Disease Recognition Model Based on Multi Source Data Fusion and Deep Learning

You Zhou, Chuang Han
Remote Sensing and Land Use
article

Research on Apple Tree Leaf Disease Recognition Model Based on Multi Source Data Fusion and Deep Learning

You Zhou, Chuang Han
article en

Abstract

In agriculture, precisely identifying apple leaf diseases is crucial for ensuring high yields. To tackle the opacity of neural networks, we propose a multi - source fusion framework that combines visible - light images and environmental sensors, thereby overcoming the limitations of single - modal data. The interpretable GAM - MFNet utilizes a generalized additive model. It processes structured data and image data through parallel modules, integrating univariate functions with convolutional networks. This design strikes a balance between prediction performance and global/local interpretability by means of feature analysis and prototype matching. Experiments demonstrate an accuracy of 89.99% in identifying five diseases, representing a 4.11% improvement over baselines. Feature visualization reveals that environmental factors such as temperature and humidity interact with lesion textures, highlighting the impacts of microclimate on disease symptoms. This research promotes agricultural diagnosis and provides a scalable and interpretable machine - learning framework for precision farming.

Xi’an University of Posts and Telecommunications (CN)
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Openalex Percentile: Top 81%
Remote Sensing and Land Use
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Research on Apple Tree Leaf Disease Recognition Model Based on Multi Source Data Fusion and Deep Learning — You Zhou, Chuang Han · (2025) | TGRS Research Map | TGRS