My research lies at the intersection of machine learning, communication networks, and optimization. I develop scalable and privacy-preserving intelligent systems, with a particular focus on distributed learning, wireless networks, edge intelligence, and data-driven mobility and logistics.
Advancing distributed and federated intelligence through scalable learning, optimization, and collaborative decision-making across decentralized systems. Research focuses on efficiency, robustness, and learning under practical resource and network constraints.
Developing secure, reliable, and privacy-aware federated learning systems that enable collaborative training while protecting sensitive data. Research spans trustworthy AI, privacy-enhancing technologies, robustness, fairness, and secure computation.
Integrating artificial intelligence into next-generation communication systems to enable adaptive, efficient, and autonomous network operation. Research includes wireless optimization, edge intelligence, and future network architectures.
Designing intelligent systems for adaptive video streaming, cooperative content delivery, and quality enhancement over heterogeneous networks. Research spans streaming optimization, video super-resolution, bandwidth-aware delivery, and user experience.
Developing data-driven and AI-powered frameworks for intelligent transportation, delivery, and mobility ecosystems. Research focuses on user behavior modeling, demand prediction, resource allocation, incentive design, and sustainable logistics operations.
Applying artificial intelligence and distributed learning to address real-world challenges in healthcare, urban systems, energy networks, and critical infrastructure. Research emphasizes scalable, privacy-aware, and human-centered solutions for societal impact.
Developing novel ADMM-based frameworks that simultaneously achieve differential privacy guarantees and minimize communication overhead in federated networks. Includes quantized gradient methods and perturbation strategies.
Eliminating the central server bottleneck in federated learning. Designing fully decentralized protocols over graph topologies that maintain convergence guarantees while reducing communication and single-point failure risks.
Developing a privacy-preserving edge video streaming framework that delivers HD/4K content by enhancing low-resolution video directly on user devices. The project combines personalized federated learning, differential privacy, and AI-based super-resolution to reduce bandwidth consumption, optimize edge caching, and improve streaming quality.
Developing adaptive sensing, communication, and control technologies for next-generation pulsatile ventricular assist devices (VADs). The project integrates multimodal physiological sensing, energy-aware telemetry, and real-time data processing to enable personalized and reliable support for patients with heart failure.
Interdisciplinary Research Center for Communication Systems and Sensing, KFUPM
Member since 2023. Reviewer for IEEE-TCOM, IEEE-TWC, Globecom, ICASSP, ICC, WCNC