Pushing the Limits of Mobility in the Wireless Internet of Things

Duke Electrical Computer Engineering Colloquium
Speaker Name
Longfei Shangguan
Date and Time
125 Hudson Hall
Lunch will be served at 11:45.

One vision of Internet of Things (IoT) is to provide seamless connectivity and sensing. IoT devices are deployed densely in space to enable ubiquitous intelligence; and are connected wirelessly to support high-throughput data exchange. These devices are also becoming increasingly mobile, such as IoT-powered inventory management, personal robots and autonomous cars. However, the current network stack lacks primitives to support the desired connectivity, management and services of densely deployed mobile IoT devices. In this talk I will present three solutions to push the limits of mobility in wirelessly connected IoT devices. The first system, STPP, leverages mobility to localize RFID tagged objects with a median accuracy of 8.6 centimeters. This system has been commercialized and deployed in Peking Capital International Airport for baggage tracking. The second system, MobiTagbot, is an autonomous wheeled robot reader that conducts a roving survey of libraries, manufacture lines, and offices to achieve an exact spatial order of RFID tagged objects in 2.9 centimeters granularity. The third system, Wi-Fi Goes to Town, provides seamless wireless connectivity for high speed automobiles by very small wireless cells. Finally, I will conclude with a future research vision centered around building low-power, secure and scalable IoT systems.

Short Biography

Longfei Shangguan is currently a Postdoctoral research associate in the Computer Science department at Princeton University. His research interests are in IoT, mobile systems, and wireless networks. He has published more than 30 papers in highly refereed conferences and journals such as SIGCOMM, NSDI, MobiSys, ToN, TMC, TPDS etc. Prior to joining Princeton, he obtained his Ph.D and MPhil degrees from the Hong Kong University of Science and Technology in 2015 and 2013, respectively. 

Benjamin Lee