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Open access Jul 2026

AgriFusionNet: a context-aware multimodal leaf disease diagnosis and classification system for sustainable plant health monitoring

Early and accurate identification of plant diseases is essential for improving crop productivity and ensuring food security. Many existing deep learning-based plant disease classification methods rely solely on leaf images collected from a controlled environment, which limits their applicability in real-world agricultural conditions where symptoms may be visually unclear and influenced by environmental factors. To address these challenges, this study discusses AgriFusionNet, a context-aware multimodal deep learning framework that integrates leaf images, textual symptom descriptions, and environmental data for robust plant disease classification. The proposed architecture employs EfficientNet-B0 for visual feature extraction, BERT for semantic representation of symptom descriptions, and a lightweight multilayer perceptron for modeling environmental factors such as temperature, humidity, rainfall, and soil moisture. Features from all three modalities are fused into a unified representation to train the CNN model. The model is trained and tested upon the Context-Aware Multimodal Augmented PlantVillage dataset covering 38 plant diseases and healthy classes. Experimental results show that AgriFusionNet gives an overall accuracy of 98.94% on the dataset Context-Aware Multimodal Augmented PlantVillage, with competitive precision and recall and F1-score. The multimodal framework facilitates the co-learning of visual, semantic, and contextual environmental representations and the analyses of the confusion matrix and feature interactions give insights into cross-modal relationships. The proposed approach aims to explore context-aware multimodal representation learning for agricultural AI applications, with emphasis on integrating complementary visual, semantic, and contextual information.

V. C., Nischith N Shetty, M. Ramaiah et al. · 0 citations
Open access Jul 2026

Next-generation intrusion detection in cyber-physical systems using an ensemble of quantum-inspired and deep neural models

Cyber-physical systems (CPSs) could cause actuation and safety risks. Intrusion detection is essential for preserving the system's integrity due to growing security issues. Nowadays, deep learning (DL) schemes have been deployed to enhance the detection of cyber-attacks, yet these models are prone to overfitting, which reduces detection performance. Hence, this research proposes a novel deep learning-based Intrusion Detection System (IDS) for CPS to address these limitations. The proposed methodology consists of four key stages, including preprocessing, feature extraction, feature selection, and intrusion detection. Data preprocessing is performed via cleansing, followed by the extraction of statistical [mean, median, and standard deviation (SD)], entropy-based, improved correlation, improved mutual information (MI), flow-based, and Improved Information Gain (IIG) features, which are derived to obtain the important features. The Archimedes Algorithm with Team Work Principle (AA_TWP), integrating the Archimedes Optimization Algorithm (AOA) and the Teamwork Optimization Algorithm (TOA), with modifications to the exploration phase, is employed to efficiently select the most relevant features. The selected features, along with preprocessed data, are fed into an ensemble of Deep Belief Networks (DBNs), Quantum Deep Neural Networks (QDNNs), and optimized Bidirectional Long Short-Term Memory (Bi-LSTM), with Bi-LSTM weights further tuned by AA_TWP. The ensemble outputs are averaged to produce the final intrusion decision. Experimental results demonstrate 91.52% accuracy and 91.76% Matthews Correlation coefficient (MCC), highlighting the effectiveness of the proposed approach, which outperforms existing techniques.

Maloth Sagar, V. C. · 0 citations