|Apr. 1||●||NICT started the five-year period of its fifth medium to long-term plan. (2021-2025)
The group name was changed to "Photonic Research Laboratory"
in "Photonic ICT Research Center, Network Research Institute".
|Dec. 10||●||Georg Rademacher's paper was accepted as the Post-deadline Paper in ECOC2020 (Press release)|
|Dec. 6||●||Presentations in ECOC2020 (Dec. 6-10, Brussels + Online)|
|Oct 30||●||IWOO2020 will be held. (Oct. 30, Online)|
|Sep 18||●||Received 47th Hisoka Maejima Award|
|Mar. 11||●||Georg Rademacher's paper was accepted as the Post-deadline Paper in OFC2020 (Press release)|
|Jan. 22||●||Presentations in OFC2020 (Mar. 8-12, San Diego, USA)|
|Jan. 21||●||Demonstration of World Record Transmission Capacity in a Single Optical Fiber over a 38-core 3-mode Optical Fiber (Press release)|
The Photonic Network System Laboratory performs research into ultrahigh-capacity multi-core fiber transmission technologies and optical integrated network technologies to meet the increased demand for data services, predicted to increase by three orders of magnitude from today by 2020. This research includes investigation of both high-capacity point-to-point transmission and fully dynamic, flexible network systems able to accommodate rapid traffic fluctuation and the diversification of data services. Further research is required to develop basic technologies for optical access networks to allow these high capacity networks to reach increased numbers of subscribers at greater distances and with more power efficiency than possible.
Photonic Network System Technologies
This research develops technologies for ultrahigh-capacity multi-core fiber network systems with more than 1-Peta bps switching nodes. Energy-efficient all optical switching nodes. Energy-efficient all optical switching technologies for packet processing without converting optical signals into electrical signals are investigated in addition to optical transmitter and receiver technologies for multicore fibers. To increase achievable capacity, development of basic technologies for spatial super-mode transmission is also performed.
In addition, this research aims to develop optical swithing and transport node platforms that can handle different baud rates, communication schemes, and protocols enabled by the reconfiguration of common hardware. Further research develops 1-Tera bps-per-channel class optical transceiver and switching and real-time dynamic control technologies for optical signals in both the time and frequency domain.
Space Division Multiplexing
Optical Integrated Network
Photonic Network Laboratory,
Photonic ICT Research Center, Network Research Institute,
National Institute of Information and Communications Technology
4-2-1 Nukui-kitamachi, Koganei, Tokyo 184-8795, Japan.