D3-03

11.22(金) 12:30-13:10 | 展示会場内 RoomD

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Thematic Seminar

残席僅か

Supporting the Beyond 5G/6G with cutting-edge ICT technology and its applications(仮)

Presented byNational Institute of Information and Communications Technology

(1) High-Precision Space-Time Synchronization Technology Paving the Way for a Beyond 5G/6G Society (2) Utilizing edge processing in environmental monitoring using video IoT (3) Highly reliable, large-capacity in-vehicle optical network for fully autonomous driving
  • IoT
Speaker

National Institute of Information and Communications technology (NICT)

Radio Propagation Raboratory, Electromagnetic Standards Research Center

Ryuichi Ichikawa

After earning his Ph.D. in science, he joined the Communications Research Laboratory (now NICT) in 1995. There, he has conducted research on crustal deformation monitoring using VLBI and GPS, spacecraft tracking using VLBI, technologies for a compact VLBI system, GNSS time and frequency transfer, and geodetic measurements for evaluating 10^-18-order frequency uncertainties of optical atomic clocks. Ph.D.(Science).

Speaker

National Institute of Information and Communications technology (NICT)

Network System Laboratory, Resilient ICT Research Center

Kazutaka Kikuta

In March 2017, he completed the doctoral program at the University of Tokyo Graduate School and obtained a PhD in Engineering. After working as an assistant professor at the Center for Northeast Asian Studies at Tohoku University, he joined the National Institute of Information and Communications Technology (NICT) in April 2021. He is currently engaged in research and development of image analysis technology and video IoT at the Resilient ICT Research Center at the NICT Network Research Institute. In 2020, he received the IEICE Paper Award.

Speaker

Keio University

Professor, Department of Electrical and Information Engineering, College of Science and Engineering

Hiroyuki Tsuda

To realize fully autonomous driving, the acquisition of the car's environment, the recognition of traffic signs and obstacles, the decision of driving action, and the control of the car should be repeated rapidly. The in-vehicle network is used to transmit large amounts of data with low latency in this loop, which must also meet stringent environmental, electromagnetic compatibility, and reliability requirements. To solve this problem, a novel in-vehicle optical network system (SiPhON: Silicon Photonics based in-vehicle Optical Network) has been proposed and successfully demonstrated.

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