2018 · 27 citations · 10 references
EngineeringCommunicationElectrical EngineeringAntennasPropagationWireless CommunicationsCommunication NetworksMillimeter-wave CommunicationsMobile CommunicationMobile NetworksWireless Channel ModelingWireless Networks5G Mobile Networks5G NetworksCellular Communication NetworksCellular NetworksMillimeter-wave Channel ModelingPath LossPath Loss ModelingPropagation Path Loss
The next generation of cellular networks (5G) will exploit the mmWave spectrum to increase the available capacity. Communication at such high frequencies, however, suffers from high path loss and blockage, therefore directional transmissions using antenna arrays and dense deployments are needed. Thus, when evaluating the performance of mmWave mobile networks, it is necessary to accurately model the complex channel, the directionality of the transmission, but also the interplay that these elements can have with the whole protocol stack, both in the radio access and in the higher layers. In this paper, we improve the channel model abstraction of the mmWave module for ns-3, by introducing the support of a more realistic antenna array model, compliant with 3GPP NR requirements, and of multiple antenna arrays at the base stations and mobile handsets. We then study the end-to-end performance of a mmWave cellular network by varying the channel and antenna array configurations, and show that increasing the number of antenna arrays and, consequently, the number of sectors is beneficial for both throughput and latency.
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End-to-End Simulation of 5G mmWave Networks
Marco Mezzavilla, Menglei Zhang, Michele Polese et al. · IEEE Communications Surveys & Tutorials · 2018 · 447 citations · Full text
Engineering, Electrical Engineering, Digital Communication +16
5G Cellular User Equipment: From Theory to Practical Hardware Design
Yiming Huo, Xiaodai Dong, Wei Xu · IEEE Access · 2017 · 236 citations · Full text