Overview

The first part of this specialization in 6G wireless technologies will equip learners to master foundational 6G concepts and vision, analyze AI-driven network operations, understand Reconfigurable Intelligent Surfaces (RIS) technology, and explore optical wireless communications including LiFi. Learners will gain critical insights from leading experts on how smart radio and optical systems will reshape wireless connectivity. Part 1 combines theoretical foundations with practical insights from industry pioneers, focusing on AI-native networks and intelligent surfaces that will define next-generation connectivity. The integrated approach linking RIS technology with machine learning and optical wireless systems provides a strong understanding of 6G's enablers and related technologies. By completing Part 1, learners will be equipped with specialized knowledge in the fast-evolving areas of 6G development, positioning them at the forefront of wireless innovation. This foundation prepares learners for advanced topics in Parts 2 and 3, creating a pathway to 6G expertise that bridges academic research with real-world applications.

Syllabus

Module 1: Introduction to 6G Wireless Technologies

This module introduces the foundational concepts of 6G wireless technologies, highlighting their potential to reshape global communication. Students will explore the vision for ubiquitous coverage in the 6G era, addressing how this technology can help bridge the digital divide. The module will also dive into the symbiotic relationship between AI and 6G, exploring how artificial intelligence can enhance wireless networks and vice versa. Students will gain an understanding of 6G's transformative potential across various sectors and its role in building the future of connectivity.

Module 2: Reconfigurable Intelligent Surfaces (RIS)-Assisted Wireless Communication Systems

This module provides an in-depth exploration of Reconfigurable Intelligent Surfaces (RIS) in wireless communication systems. Students will learn the theoretical foundations, technical details, and application scenarios of RIS, focusing on its potential to improve wireless network spectral efficiency and energy consumption. The module will also address future challenges and provide case studies discussions and interactive activities.

Module 3: Optical Wireless Communications for 6G and Beyond

This module explores Optical Wireless Communications (OWC) as a key enabling technology for 6G networks. Students examine fundamental principles, emerging technologies including LiFi and VLC, and design considerations such as channel modeling and interference management. The module covers RIS-enabled systems, physical layer security, and practical applications in ultra-reliable low-latency communications and high data-rate indoor networks, while addressing implementation challenges and future research directions.

Module 4: Discussion on The Rise of Smart Radio and Optical Systems

This module features expert discussions on the evolution of smart radio environments and optical wireless systems for next-generation communications. Through conversations with leading researchers, students explore the development of Reconfigurable Intelligent Surfaces (RIS) from theoretical concepts to real-world applications, the integration of machine learning in signal processing, and the role of optical wireless technologies in defining 6G networks. The module provides insights into current research trends, standardization efforts, industry perspectives, and future challenges in smart wireless systems.