The widespread use of Large Language Models (LLMs) in AI-driven Internet of Medical Things (IoMT) ecosystems has introduced new challenges in areas such as data privacy, communication burden, computational efficiency and collaborative learning in a secure manner. To overcome these challenges, we introduce a novel Trustworthy Large Language Model-Assisted Zero-Trust Federated Learning Framework (TrustFedLLM-ZT) for secure and privacy-preserving healthcare intelligence. The proposed framework embeds Zero-Trust principles within federated learning (FL) and LLM-assisted intelligent model optimization, enhancing the continuous authentication, decentralized privacy protection, secure model aggregation, and trustworthy clinical decision support without compromising sensitive patient data. The framework is tested with the MIMIC-IV healthcare dataset and simulated in the PyTorch Federated Learning (PySyft) environment. Five critical performance metrics, namely, Privacy Preservation Rate, Training Time, Response Time, Communication Cost and Computation Cost, are used for comparison between experimental results and the conventional CNN-LSTM model, Blockchain-Assisted Federated Learning (BAFL), and Zero-Trust Federated Learning (ZT-FL) models. Proposed TrustFedLLM-ZT achieves PPR of 99.1% that is 14.5%, 8.2%, and 4.1% higher than CNN-LSTM, BAFL and ZT-FL, respectively. Moreover, it decreases the Training Time by 27.4%, Response Time by 31.6%, Communication Cost by 35.8% and Computation Cost by 29.7% in comparison with the current approaches. The outcomes illustrate that the TrustFedLLM-ZT approach effectively balances security, computational and communication efficiency, while offering clear benefits in the secure collaborative learning context and highlighting its potential as a robust and scalable solution for future AI-powered medical applications and privacy-aware intelligent healthcare systems.
Harika B, Vishwesh Nagamalla, Kodipaka Rajeshwar Rao et al.· 2026 International Conferenc...· 0 citations
The rapid growth of Internet of Things (IoT) applications has introduced significant challenges in efficient task scheduling within distributed cloud environments, particularly in meeting Quality of Service (QoS) requirements while minimizing operational costs and SLA violations. To address this issue, this paper proposes an AI-Based Hybrid Detective Behavior Optimization (DBA) technique integrated with fuzzy systems for intelligent task scheduling of IoT workloads. The proposed approach leverages the exploration–exploitation capabilities of DBA along with fuzzy logic-based decision-making to dynamically prioritize and allocate tasks under uncertain and heterogeneous cloud conditions. The model is evaluated using the DigitalOcean cloud workload in the WorkflowSim simulation environment and compared against traditional methods including Genetic Algorithm (GA), Particle Swarm Optimization (PSO), and Deep Reinforcement Learning (DRL). Experimental results demonstrate that the proposed DBA-Fuzzy approach significantly outperforms baseline methods by reducing SLA violations by 24.6%, improving QoS by 21.3%, minimizing execution cost by 18.9%, and enhancing throughput by 26.7%. These improvements highlight the robustness and adaptability of the proposed model in handling dynamic IoT workloads. The findings suggest that integrating metaheuristic optimization with fuzzy reasoning provides an effective solution for multi-objective task scheduling, making it highly suitable for next-generation distributed cloud environments supporting large-scale IoT applications.
Suryateja Kothuru, Sudipta Priyadarshini, Sai Mounika Chintalapudi et al.· International Conference Com...· 0 citations
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