Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices
This paper presents a novel method using multiple compact antenna test range (CATR) reflectors to perform simultaneous multiple angle measurements for 5G devices that are capable of beam-forming in the millimeter wave frequency range. Four CATR reflectors and their respective feed antennas are arran...
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doaj-ca36b700356a4ff292d5fdb738c8934b2021-03-30T04:54:45ZengIEEEIEEE Access2169-35362020-01-01821132421133410.1109/ACCESS.2020.30385979261325Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave DevicesCorbett Rowell0https://orcid.org/0000-0002-4561-4191Benoit Derat1https://orcid.org/0000-0003-4583-2292Adrian Cardalda-Garcia2https://orcid.org/0000-0001-6018-1294Rohde & Schwarz GmbH, Munich, GermanyRohde & Schwarz GmbH, Munich, GermanyRohde & Schwarz GmbH, Munich, GermanyThis paper presents a novel method using multiple compact antenna test range (CATR) reflectors to perform simultaneous multiple angle measurements for 5G devices that are capable of beam-forming in the millimeter wave frequency range. Four CATR reflectors and their respective feed antennas are arranged on a planar semi-circle arc with the device under test placed on a positioner at the center of the arc. This arrangement is designed to generate four planar wavefronts with different incidences, realizing up to five pairs of angular spreads or four switched/simultaneous angles of arrival. The objective of this setup is to reproduce configurations involving multiple base-stations radiating from different directions. The initial target application is radio resource management (RRM) testing, where the execution of mobility procedures and radio link monitoring of a 5G millimeter wave device are evaluated. The reflectors create far-field conditions at the device under test for quiet zones up to 30 cm in diameter inside a portable system with a footprint of 3.25 × 1.4 meters. The applicability of the approach to RRM testing is demonstrated through measurements, performed with both sinusoidal and modulated signals, using horn antennas and commercial 5G devices.https://ieeexplore.ieee.org/document/9261325/5G mobile communicationantenna measurementsmillimeter wave communicationsMIMOmobile radio mobility |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Corbett Rowell Benoit Derat Adrian Cardalda-Garcia |
spellingShingle |
Corbett Rowell Benoit Derat Adrian Cardalda-Garcia Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices IEEE Access 5G mobile communication antenna measurements millimeter wave communications MIMO mobile radio mobility |
author_facet |
Corbett Rowell Benoit Derat Adrian Cardalda-Garcia |
author_sort |
Corbett Rowell |
title |
Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices |
title_short |
Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices |
title_full |
Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices |
title_fullStr |
Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices |
title_full_unstemmed |
Multiple CATR Reflector System for Multiple Angles of Arrival Measurements of 5G Millimeter Wave Devices |
title_sort |
multiple catr reflector system for multiple angles of arrival measurements of 5g millimeter wave devices |
publisher |
IEEE |
series |
IEEE Access |
issn |
2169-3536 |
publishDate |
2020-01-01 |
description |
This paper presents a novel method using multiple compact antenna test range (CATR) reflectors to perform simultaneous multiple angle measurements for 5G devices that are capable of beam-forming in the millimeter wave frequency range. Four CATR reflectors and their respective feed antennas are arranged on a planar semi-circle arc with the device under test placed on a positioner at the center of the arc. This arrangement is designed to generate four planar wavefronts with different incidences, realizing up to five pairs of angular spreads or four switched/simultaneous angles of arrival. The objective of this setup is to reproduce configurations involving multiple base-stations radiating from different directions. The initial target application is radio resource management (RRM) testing, where the execution of mobility procedures and radio link monitoring of a 5G millimeter wave device are evaluated. The reflectors create far-field conditions at the device under test for quiet zones up to 30 cm in diameter inside a portable system with a footprint of 3.25 × 1.4 meters. The applicability of the approach to RRM testing is demonstrated through measurements, performed with both sinusoidal and modulated signals, using horn antennas and commercial 5G devices. |
topic |
5G mobile communication antenna measurements millimeter wave communications MIMO mobile radio mobility |
url |
https://ieeexplore.ieee.org/document/9261325/ |
work_keys_str_mv |
AT corbettrowell multiplecatrreflectorsystemformultipleanglesofarrivalmeasurementsof5gmillimeterwavedevices AT benoitderat multiplecatrreflectorsystemformultipleanglesofarrivalmeasurementsof5gmillimeterwavedevices AT adriancardaldagarcia multiplecatrreflectorsystemformultipleanglesofarrivalmeasurementsof5gmillimeterwavedevices |
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