Maximum SNR power-delay spectrum propagation models in blocked 60-GHz line-of-sight settings inside conference halls
College
Gokongwei College of Engineering
Department/Unit
Electronics And Communications Engg
Document Type
Article
Source Title
International Journal on Communications Antenna and Propagation
Volume
9
Issue
6
Publication Date
6-1-2019
Abstract
Models of the radio channel power delay profile are proposed for low-complexity 60 GHz communications systems that employ beam tracking capability in realistic indoor non-line-of-sight scenarios. A single-carrier transmission system that does not employ equalization, but only uses forward error correction is considered. The channel models were obtained from measurements done in a novel way in a conference room in which non-line-of-sight scenarios are created through a human-sized blocking object, and in which beamformiug is applied at the receiver to track and obtain reflected paths. By deploying beamformiug antennas and then switching to the best path when the LoS path is cut, it was found through measurements and models that very low delay spreads could be achieved. As a result, not only the new channel models are verified, but the proposed model could replicate the measured channel with narrow antenna beamwidth together with beam hacking and switching. The low delay spread performance could lead to low-power consuming devices and multi-gigabits-per-second transmission by a single earner with simple FEC. © 2019 Praise Worthy Prize S.r.l. -All rights reserved.
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Digitial Object Identifier (DOI)
10.15866/irecap.v9i6.18020
Recommended Citation
Materum, L., Baykas, T., Sawada, H., & Kato, S. (2019). Maximum SNR power-delay spectrum propagation models in blocked 60-GHz line-of-sight settings inside conference halls. International Journal on Communications Antenna and Propagation, 9 (6) https://doi.org/10.15866/irecap.v9i6.18020
Disciplines
Electrical and Electronics | Systems and Communications
Keywords
Beamforming; Radio frequency; Line-of-sight radio links; Millimeter waves; Electric power systems—Communication systems
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