Key research themes
1. How do microprocessor architectures and organizational designs influence energy efficiency and performance across computing scales from embedded to cloud systems?
This theme investigates the architectural and organizational principles of microprocessors, focusing on instructional design paradigms (such as RISC versus CISC), multicore and parallel hardware-software interfaces, and energy-efficient computing approaches that span from embedded devices to high-performance cloud environments. Understanding these interactions provides significant insights into designing more performant and sustainable computing platforms.
2. What are the emerging hardware and system architectures facilitating scalable, high-performance distributed and parallel computing platforms?
This research theme focuses on hardware architectures and system-level designs that enable scalable distributed computing, including cluster computing and emerging decentralized computing paradigms. It examines hardware interconnect technologies, parallel programming models, and novel frameworks that leverage commodity components to realize supercomputing capabilities in cost-effective and flexible ways.
3. How are Internet of Things (IoT) devices and embedded hardware systems enhancing automation, monitoring, and intelligent control in industrial and domestic environments?
This theme explores the design, implementation, and integration of hardware and embedded microcontroller-based systems within IoT frameworks. It addresses applications ranging from industrial production line automation, smart agriculture, home automation, to real-time physiological monitoring. The focus is on modular hardware architectures, sensor interfaces, wireless communication protocols, and system-level integration to enable intelligent, adaptive control systems and monitoring networks.