2015 · 17 citations · 8 references
EngineeringElectrical EngineeringMicrowave EngineeringPropagationWireless CommunicationsMicrowave MeasurementsMicrowave PropagationMillimeter-wave CommunicationsWireless Channel ModelingWireless Networks5G Mobile Networks5G NetworksMeasurementPath LossPath Loss ModelingPropagation Path LossRadio Frequency Link DesignRadio Wave Path Loss
Fifth generation (5G) mobile communication systems are being actively investigated to increase the system capacity. For 5G, utilizing frequency bands above 6 GHz is being investigated because it is considered that ensuring a wide frequency band above 6 GHz is relatively easier than that under 6 GHz, which is used for IMT-Advanced systems. In this report, a site general type path loss prediction model for 5G system radio link design is investigated for the above mentioned frequency band in a non-line-of-sight (NLOS) microcell environment. More specifically, based on measurement data, extending the applicable frequency range of the path loss prediction model for a hexagonal layout in a NLOS microcell environment for under 6 GHz, which is defined in Report ITU-R M.2135, is investigated. The root mean square of the prediction error (RMSE) of the original M.2135 prediction model increases with an increase in frequency; however, the model modifies the frequency term of M.2135 which improves the RMSE at higher frequencies.
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Millimeter Wave Mobile Communications for 5G Cellular: It Will Work!
Theodore S. Rappaport, Shu Sun, Rimma Mayzus et al. · IEEE Access · 2013 · 7.4K citations · Full text
Channel modelling for the fifth generation mobile communications
Jonas Medbo, Kai Börner, Katsuyuki Haneda et al. · 2014 · 108 citations