Indoor Corridor and Office Propagation Measurements and Channel Models at 8, 9, 10 and 11 GHz

Recent research into radio propagation and large-scale channel modeling shows that frequencies can be used above 6 GHz for the new generation of mobile communications (5G). This paper provides a detailed account of measurement campaigns that use directional horn antennas in co-polarization (V-V and...

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Veröffentlicht in:IEEE access 2019, Vol.7, p.55005-55021
Hauptverfasser: Batalha, Iury Da Silva, Lopes, Andrea V. R., Araujo, Jasmine P. L., Castro, Bruno L. S., Barros, Fabricio J. B., Cavalcante, Gervasio Protasio Dos Santos, Pelaes, Evaldo Goncalves
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container_title IEEE access
container_volume 7
creator Batalha, Iury Da Silva
Lopes, Andrea V. R.
Araujo, Jasmine P. L.
Castro, Bruno L. S.
Barros, Fabricio J. B.
Cavalcante, Gervasio Protasio Dos Santos
Pelaes, Evaldo Goncalves
description Recent research into radio propagation and large-scale channel modeling shows that frequencies can be used above 6 GHz for the new generation of mobile communications (5G). This paper provides a detailed account of measurement campaigns that use directional horn antennas in co-polarization (V-V and H-H) and cross-polarization (V-H) in line-of-sight (LOS) and obstructed-line-of-sight situations between the transmitter and receptor; they were carried out in a corridor and computer laboratory located at the Federal University of Para (UFPA). The measurement data were used to adjust path loss prediction models of radio propagation, through the minimum mean square error (MMSE) method, for indoor environments in the frequencies of 8-11 GHz. The parameters for the models that were determined are as follows: path loss exponent, polarization exponent (co- and cross-polarization), effects of shadowing and path loss exponent for wall losses. Standard deviation and standard deviation point by point are included as statistical metrics. The approximations with regard to the large-scale path loss models for frequencies of 8-11 GHz show a convergence with the measured data, owing to the method employed for the optimization of the MMSE to determine the parameters of the model.
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subjects 10 GHz and 11 GHz
5G mobile communication
8 GHz
9 GHz
Antenna measurements
channel modeling
co-polarization
Computational modeling
cross-polarization
Data models
Frequency measurement
Horn antennas
Indoor environment
Indoor environments
Line of sight
LOS
Loss measurement
Mathematical models
measurements
MMSE
Mobile communication systems
OLOS
Optimization
Parameters
path loss model
Polarization
Prediction models
Propagation
Radio frequency
Radio transmission
Standard deviation
title Indoor Corridor and Office Propagation Measurements and Channel Models at 8, 9, 10 and 11 GHz
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