2014 · 212 citations · 21 references
EngineeringCommunicationElectrical EngineeringAntennasPropagationWireless CommunicationsBeamformingMicrowave PropagationMillimeter-wave CommunicationsMultipath PropagationWave PropagationWireless Channel ModelingBeam Steering In Millimeter-wave SystemsMillimeter-wave PropagationMultipathOutdoor Millimeter-wave CommunicationsPath LossPath Loss ModelingPower Delay ProfilePropagation Path Loss
The spectrum congestion experienced in today's common cellular bands has led to research and measurements to explore the vast bandwidths available at millimeter waves (mmWaves). NYU WIRELESS conducted E-band propagation measurements for both mobile and backhaul scenarios in 2013 in the dense urban environment of New York City using a sliding correlator channel sounder, by transmitting a 400 Mega chip per second (Mcps) PN sequence with a power delay profile (PDP) multipath time resolution of 2.5 ns. Measurements were made for more than 30 transmitter-to-receiver location combinations for both mobile and backhaul scenarios with separation distances up to 200 m. This paper presents results that support the use of directional steerable antennas at mmWave bands in order to achieve comparable path loss models and channel statistics to today's current cellular systems and at 28 GHz. These early results reveal that the mmWave spectrum, specifically the E-band, could be used for future cellular communications by exploiting multipath in urban environments with the help of beam-steering and beam combining.
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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
Millimeter wave wireless communications
George R. MacCartney, Shu Sun, Theodore S. Rappaport et al. · 2016 · 1.3K citations · Full text
Engineering, Electrical Engineering, Microwave Engineering +16
Theodore S. Rappaport, Félix Gutiérrez, Eshar Ben-Dor et al. · IEEE Transactions on Antennas and Propagation · 2013 · 857 citations