Atsushi Kanno
Professor
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About
Atsushi Kanno is a Professor at Nagoya Institute of Technology in Japan. His research interests include advanced optical communication technologies, terahertz signal processing, and wireless systems, as highlighted in his recent articles on metasurface antennas and photonic technology. His work contributes to the development of compact mobile optical-wireless transceivers and robust communication links utilizing innovative methodologies.
Articles (16)
Year:
2024
Year:
2024
Year:
2024
Year:
2023
Year:
2023
Year:
2023
Year:
2023
Year:
2023
Year:
2023
Wireless communications using highly directive terahertz (THz) waves exhibit lower immunity to obstructions than microwaves, limiting their applications. This study demonstrates an obstacle-tolerant THz wireless link established by a self-healing Bessel beam at 300 GHz. The Bessel beam is generated by sending a Gaussian beam through a dielectric axicon lens. Furthermore, experiments were conducted to investigate the short-range transmission (98 mm) reception characteristics with and without the dielectric cubic obstacle (7.5 λ in size) and the metallic obstacle (22 λ in length and 8 λ in width) in the Gaussian beam and self-healing Bessel beam cross sections. The maximum attenuation of the received power due to obstruction was 8.8 and 2.2 dB for the Gaussian and Bessel beams, respectively, when the dielectric obstacle is placed in the middle of the transmission path (49 mm from a transmission lens). This study further investigated the bit error rate (BER) characteristics (1 Gbps, on–off keying) with the dielectric obstacle crossing the beam cross section. When the obstacle crosses the Gaussian beam, the BER degrades as the obstacle approaches the optical axis, breaking the wireless link. In contrast, when the obstacle crosses the Bessel beam cross section, the BER is maintained at <3.8 × 10−3 (the forward error correction limit), and the wireless link is maintained. A self-healing beam, such as the Bessel beam, makes the THz wireless link more tolerant than the Gaussian beam to obstacle and expand applications for THz wireless communications.
Year:
2023
Year:
2023
Year:
2023
Year:
2022
Year:
2022
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2022
Year:
2022
Collaborators (5)
Shintaro Hisatake
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Yuki Yoshida
National Institute of Information and Communications Technology
Zu-Kai Weng
National Institute of Information and Communications Technology
Tetsuya Kawanishi
Waseda University
Marco A. Antoniades
University of Toronto
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