
Research Article
Enhancing Agricultural Health: A Deep Learning Model for Plant Disease Detection
@INPROCEEDINGS{10.4108/eai.28-4-2025.2357993, author={Boddu Tulasi and Manaswini Katta and Tungala Uma Varalakshmi and Borusu Prasanthi Mani and Tontepu Manikanta Kumar and Koshwitha B}, title={Enhancing Agricultural Health: A Deep Learning Model for Plant Disease Detection}, proceedings={Proceedings of the 4th International Conference on Information Technology, Civil Innovation, Science, and Management, ICITSM 2025, 28-29 April 2025, Tiruchengode, Tamil Nadu, India, Part II}, publisher={EAI}, proceedings_a={ICITSM PART II}, year={2025}, month={10}, keywords={plant disease detection deep learning ensemble learning transfer learning cnn feature extraction explainable ai precision agriculture learning}, doi={10.4108/eai.28-4-2025.2357993} }
- Boddu Tulasi
Manaswini Katta
Tungala Uma Varalakshmi
Borusu Prasanthi Mani
Tontepu Manikanta Kumar
Koshwitha B
Year: 2025
Enhancing Agricultural Health: A Deep Learning Model for Plant Disease Detection
ICITSM PART II
EAI
DOI: 10.4108/eai.28-4-2025.2357993
Abstract
In this work, we have presented a Multi-Fusion Deep Learning Framework for plant disease diagnosis by addressing the challenge of accurate detection using multiple types of sources. The current research combines several image-based input data from the Plant Village dataset and environmental and field data (e.g., weather and soil conditions). The Hybrid Feature Extraction method combines pre-trained models with handcrafted features that incorporate Histogram of Oriented Gradients. Additionally, the multi-branch CNN architecture is further developed with a spatial attention mechanism on diseaseaffected regions. Furthermore, the ensemble of models is based on the use of weighted averaging and stacking to enhance the quality of prediction. The model offers a superior application of transfer learning to adjust to new patterns of illnesses based on the type of disease and incremental learning is added to make the model innately adjusted over time. Furthermore, explainable AI methods, like Grad-CAM and SHAP, are applied to the model to explain a rational choice. The framework is evaluated on Accuracy, Precision, Recall, and F1 score as the evaluation matrices along with real-world validations via field trials. This approach offers a holistic solution to the efficient and scalable implementation of plant disease detection in Precision Agriculture.