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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Main Authors: Corbett Rowell, Benoit Derat, Adrian Cardalda-Garcia
Format: Article
Language:English
Published: IEEE 2020-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9261325/
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spelling 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/
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