Prof. Yonghui Li
The University of Sydney, Australia
Li (M'04-SM'09-F19) is a Professor and Director of
Wireless Engineering Laboratory in School of Electrical and
Information Engineering, University of Sydney. He is the
recipient of the prestigious Australian Research Council
(ARC) Queen Elizabeth II Fellowship in 2008 and the
Australian Future Fellowship in 2012. He is a Fellow of
IEEE. He participated in the world first national smart grid
trial, the $500million Australian Smart Grid Smart City
His current research interests are in the area of wireless communications, with a particular focus on MIMO, millimeter wave communications, machine to machine communications, coding techniques and cooperative communications. He is now an editor for IEEE transactions on communications, IEEE transactions on vehicular technology. He also served as the guest editor for several IEEE journals, such as IEEE JSAC, IEEE Communications Magazine, IEEE IoT journal, IEEE Access. He received the best paper awards from IEEE International Conference on Communications (ICC) 2014, IEEE PIRMC 2017 and IEEE Wireless Days Conferences (WD) 2014.
Speech Title: 5G IoT Networks: from Massive Access to uRLLC
Abstract: Connected smart objects, platforms and environments have been identified as the next big technology development, enabling significant society changes and economic growth. The entire physical world will be connected to the Internet, referred to as Internet of Things (IoT). The intelligent IoT network for automatic interaction and processing between objects and environments will become an inherent part of areas such as electricity, transportation, industrial control, utilities management, healthcare, water resources management and mining. Wireless networks are one of the key enabling technologies of the IoT. They are likely to be universally used for last mile connectivity due to their flexibility, scalability and cost effectiveness. The attributes and traffic models of IoT networks are essentially different from those of conventional communication systems, which are designed to transmit voice, data and multimedia. IoT access networks face many unique challenges that cannot be addressed by existing network protocols; these include support for a truly massive number of devices, the transmission of huge volumes of data burst in large-scale networks over limited bandwidth, and the ability to accommodate diverse traffic patterns and quality of service (QoS) requirements. Some IoT applications have much stringent latency and reliability requirements which cannot be accommodated by existing wireless networks. Addressing these challenges requires the development of new wireless access technologies, underlying network protocols, signal processing techniques and security protocols. In this talk, I will present the IoT network development, architecture, key challenges, requirements, potential solutions and recent research progress in this area, particularly in 5G.
Prof. Rui Zhang
National University of Singapore, Singapore
Zhang received the Ph.D. degree from Stanford University
in electrical engineering in 2007. He is now a Professor in
the Department of Electrical and Computer Engineering,
National University of Singapore. His current research
interests include wireless power transfer, UAV
communication, and reconfigurable MIMO. He has published
over 400 papers, which have been cited more than 40,000
times with h-index over 100. He has been listed as a Highly
Cited Researcher by Thomson Reuters/Clarivate Analytics
since 2015. His works have received several IEEE awards,
including the IEEE Marconi Prize Paper Award in Wireless
Communications (in both 2015 and 2020), the IEEE
Communications Society Heinrich Hertz Prize Paper Award (in
both 2017 and 2020), the IEEE Signal Processing Society Best
Paper Award, Young Author Best Paper Award and Donald G.
Fink Overview Paper Award. He has served as an Editor for
several IEEE journals, including TWC, TCOM, JSAC, TSP, TGCN,
etc., and as TPC co-chair or organizing committee member for
over 30 international conferences. He is an IEEE
Distinguished Lecturer of IEEE Communications Society and
IEEE Signal Processing Society.
Speech Title: Towards Smart and Reconfigurable Radio Environment: Intelligent Reflecting Surface Aided Wireless Networks
Abstract: Intelligent Reflecting Surface (IRS) has recently emerged as the new wireless communication research frontier with the goal of achieving smart and reconfigurable radio propagation environment for the future wireless networks via passive and tunable signal reflections. Featured by orders-of-magnitude lower hardware and energy cost than traditional active arrays and yet superior beamforming performance as well as other new functionalities, IRS is expected to be a key driving technology for B5G/6G wireless networks, especially for enabling them to migrate to higher frequency bands (mmWave/THz). More importantly, IRS will fundamentally reshape today’s wireless network with active nodes solely to a new IRS-aided hybrid network comprising both active and passive components co-working in an intelligent way, so as to achieve a sustainable capacity growth with low and affordable cost in the future. In this talk, we will provide an overview of IRS, including its motivations, promising applications in wireless network, communication basics, new design challenges, and their state-of-the-art solutions. Important directions worthy of further investigation such as multi-IRS aided networks will also be discussed.
Prof. Moshe Zukerman
City University of Hong Kong, Hong Kong
Prof. Moshe Zukerman is a Chair
Professor of Information Engineering in the Electronic
Engineering Department of City University of Hong-Kong. His
research focuses on performance evaluation, resource
allocation and survivable design of telecommunications
networks and systems. He received B.Sc. and M.Sc. degrees
from the Technion, Israel and a Ph.D. degree from UCLA in
1985. During 1986-1997 he was with Telstra Research
Laboratories and during 1997-2008 with The University of
Melbourne. He has served on editorial boards of various
journals and on technical and organizing committees of
numerous conferences. He has over 350 publications in
scientific journals and conference proceedings. He is a
Fellow of the IEEE.
Speech Title: Designing Networks for Resilience and Cost Effectiveness
Abstract: Two primary objectives in telecommunications network design are resilience and cost effectiveness. With our dependence on the Internet, its resilience is increasingly crucial to humanity as its failure has grave socio-economic consequences. Cost effectiveness is not only important because of the need to be profitable and competitive, but also because of the societal need to conserve energy and combat global warming. Two important characteristics of the Internet are long haul cables that provide efficient communication between different continents and protocols that are structured in layers. This presentation will discuss methodologies for optimizing network design to achieve resilience as well as cost effectiveness considering optimal cable path planning and multilayered networks. The importance of cable path planning optimization lies in the fact that there are now over a million kilometers of internet cables and with plans for additional million kilometers of cables to be laid in the next decade, at a cost of tens of billions of dollars, to meet the overgrowing traffic demand generated by new technologies and services. As the complexity of the internet protocols increases with the introduction of new technologies, the multi-layering characteristics of such protocols are here to stay. Therefore, network design optimization and the understanding the tradeoffs between cost and resilience is key for cost savings and viability of the internet. Special consideration must be given to realistic conditions and scale applicable of both internet cabling and protocol design. Solutions that address these problems and issues will be presented and discussed in this presentation. This work was funded by HK RGC grants CityU123012, CityU11200417 and CityU8/CRF/13G.