B5G Team Science Tokyo
WJWTP
Appointment
Online Meeting
Shaping the Future with Beyond 5G/6G Technologies
Beyond 5G/6G technologies, expected to launch around 2030, are drawing attention as key enablers of a future integrated with AI.
This booth presents a 300 GHz coherent transceiver, a micro-actuator for correcting mechanical errors in terahertz communications, along with radomes and radio-wave absorbers—essential components for next-generation wireless systems.
Products & Solutions for telecom carrierLatest Technology Trends (Beyond 5G/6G, etc.)
| Address | |
|---|---|
| Phone Number | |
| FAX | |
| Site URL | https://www.nictb5g-thz.com/ |
| Company Video URL | https://www.youtube.com/@5g-thz |
Main Exhibitor
Seminar
5/29/2025 (THU) 11:40 ～ 12:00B2-2WJWTPSeminar Venue B
Key Technologies for Terahertz Communications: Mechanical Tuning and Radio-Wave Materials
Terahertz (THz) frequencies are expected to play a key role in enabling ultra-fast, low-latency wireless communications in Beyond 5G/6G systems. However, the extremely short wavelengths in the 150–300 GHz range make these systems highly sensitive to mechanical misalignments, especially at critical interfaces such as transmission line–waveguide transitions.
As a mechanical tuning solution, we propose a tunable waveguide transition module that employs a membrane-based micro-actuator to dynamically control the position of the back short. This structure allows for real-time impedance matching, significantly improving robustness against assembly errors and environmental variations.
In parallel, we present essential radio-wave materials, including wideband, transparent absorbers and radomes designed for millimeter-wave (mmW) and THz bands. These passive components effectively reduce undesired reflections and electromagnetic interference while preserving signal integrity, supporting the deployment of scalable and reliable terahertz transceiver systems.
Together, these mechanical and material innovations represent key enabling technologies for the next generation of terahertz communication infrastructure.
Institute of Science Tokyo
Sangyeop Lee