计算机科学
深度学习
人工智能
概化理论
机器学习
特征学习
稳健性(进化)
预处理器
特征(语言学)
数据预处理
卷积神经网络
癫痫
脑电图
特征提取
入侵检测系统
人工神经网络
自编码
脆弱性(计算)
水准点(测量)
分类器(UML)
模式识别(心理学)
钥匙(锁)
学习迁移
架空(工程)
特征工程
网络体系结构
神经影像学
数据建模
编码(社会科学)
特征选择
作者
Mohd Abdul Rahim Khan,Nasser Ali Aljarallah,Ashit Kumar Dutta,Shtwai Alsubai,Seyed Jalaleddin Mousavirad,Sunil Kumar Sharma,Ghanshyam G. Tejani,David Bassir
标识
DOI:10.1016/j.brainresbull.2025.111645
摘要
Epilepsy is a critical neurological disorder that requires accurate and privacy-preserving diagnostic solutions to enable early detection and effective management. However, existing approaches face key challenges, including reliance on centralized data, poor generalizability across modalities, suboptimal feature extraction, and vulnerability to noise. To address these issues, we propose MultiEpilepsyNet, a novel multimodal seizure detection framework that integrates federated learning with hybrid deep learning models. At its core, the system introduces SeizureFed-Net, a federated architecture that enables collaborative learning from EEG and MRI data while safeguarding patient privacy. For detection, we design SeizureShieldNet, a hybrid model that fuses the temporal learning capabilities of BBIDNet (Boosted BiLSTM Intrusion Detector Network) with the adaptive decision-making of FD-TMS (Fuzzy-DQN Threat Mitigation System) under uncertainty. To further enhance model efficiency, a Jackal-Wolf Hybrid Optimizer (JWHO)-a novel combination of Golden Jackal Optimization and Grey Wolf Optimizer-is employed for optimal feature subset selection. On the imaging side, MRI preprocessing is improved through EpiSkullNet++, a modified 3D UNet++ architecture tailored for precise brain segmentation.Extensive experiments on two benchmark datasets demonstrate the superiority of our approach, achieving 99.36% accuracy on the CHB-MIT EEG dataset and 99.38% accuracy on an epilepsy MRI dataset. Beyond accuracy, MultiEpilepsyNet demonstrates improved robustness to missing modalities, reduced training overhead via federated aggregation, and enhanced privacy preservation compared to centralized deep learning models, thereby addressing critical barriers in practical clinical deployment. These outcomes highlight the effectiveness, scalability, and real-world clinical potential of the proposed framework for epilepsy diagnosis and management.
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