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Technology theme: Innovative device technologies to achieve ultra-high level information processing in the age of trillion sensors (TSensors)

In Society 5.0, new values are expected to be created as every sort of information is acquired by sensors, and analyzed by AI. At that time, AI is required to analyze huge amounts of information, which is orders of magnitude larger than before, as the number of sensors increases. In order to realize this ultra-high level information processing, technological innovation regarding information processing on the cloud side that consolidates information and on the edge side which installs sensors to generate information is required.

Specifically, the increase in electrical resistance due to the miniaturization of electrical wiring and the delay due to parasitic capacitance limit the speeding up and low power consumption on the cloud side. Competition for technological development to replace as much wiring in computers as possible with optical wiring is intensifying all over the world. However, even if optical wiring can be introduced, it is necessary to convert optical signals into electrical signals to perform calculation processing, and further speeding up of the optical-electrical conversion interface equipped with buffer memory, and lower power consumption are thought to largely contribute to the sophistication of information processing. On the other side, there is also a limit in securing power source in a moving object such as a living body monitor or self-driving vehicle, and if further reduction of power consumption cannot be achieved, the information processing required on the edge side will not be complete.

The JST-Mirai program started R&D of innovative thermoelectric conversion technology as the power source for driving sensors from FY2019. In this fiscal year, it plans to start R&D of innovative information processing hardware technology using various technologies that realize ultra-high level information processing in the era of Trillion (1 trillion) sensors, such as technologies far exceeding conventional photonics and spintronics, and technologies combining them.

<Adopted in FY2020> R&D Project TitleSummaryR&D Period
Innovation of Photoelectric Technologies using Spintronics
NAKATSUJI Satoru (Director, Trans-scale Quantum Science Institute, The University of Tokyo)
Innovation of Photoelectric Technologies using Spintronics
(PDF:185KB)
2020.11-

R&D Management Committee Members

AWANO Hiroyuki Professor, Toyota Technological Institute
IWAMOTO Satoshi Professor, Research Center for Advanced Science and Technology, The University of Tokyo
KIMURA Shin'ichiro Technical advisor, Central Research Laboratory, Hitachi, Ltd
KUROBE Atsushi Research Fellow, Corporate Research & Development Center, Toshiba Corporation
SUZUKI Yoshishige Professor, Graduate School of Engineering Science, Osaka University
TANAKA Masaaki Professor, Department Electronic Engineering, The University of Tokyo

Innovation of Photoelectric Technologies using Spintronics

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Technology theme: Innovative device technologies to achieve ultra- high level information processing in the age of trillion sensors (TSensors)
Program Manager: NAKATSUJI Satoru (Director, Trans-scale Quantum Science Institute, The University of Tokyo)
R&D Period: 2020.11-
Grant Number: JPMJMI20A1

Summary:
Information and communication technology plays a critical role in realizing Society 5.0. The development of high-speed, widebandwidth, and low-power devices is all the more urgent to achieve sustainable information processing systems.

In high-end information processing systems such as switches and routers in large-scale data centers, I/O bottleneck has become a central challenge, awaiting the creation of ultra-fast and ultra-low power photoelectric devices. Specifically, the long electrical interconnects and the integration-limit of CMOS circuits hinder the simultaneous realization of high-speed performance and low-power consumption. To overcome this difficulty, we develop innovative photoelectric technologies, intermediating electrical signals and optical signals by spintronics to achieve a highly functional I/O device.

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R&D Team

[Leading Institution]
 The University of Tokyo

[Collaborators]
The University of Tokyo, Nihon University, RIKEN, AIST, Tohoku University,
JSR Corporation, Nitto Denko Corporation

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