International Journal of Communication Systems · 2021 · 13 citations · 125 references
EngineeringCommunicationElectrical EngineeringAntennasDigital CommunicationWireless CommunicationsMassive Multiple-input Multiple-outputMillimeter-wave CommunicationsMobile CommunicationVehicle-to-everything CommunicationWireless Channel ModelingWireless Networks5G NetworksCellular NetworksMillimeter Wave Massive MimoMillimeter-wave Multiple Input Multiple OutputMillimeter-wave PropagationVehicle-to-vehicle Channel ModelsVehicle-to-vehicle CommunicationVehicular Channel Modeling
Summary There is no doubt that the world evolves nowadays in the digital communications era. This opens the horizon to research and investment in new promising technologies like 5G and beyond cellular networks that are able to increase the subscribers' data rates in all communication systems. The aim of 5G and beyond cellular networks is to provide anywhere and anytime connectivity. By combining the enormous available bandwidth in millimeter wave (mmWave) frequencies with high multiplexing gains achieved by large antenna arrays in multiple‐input multiple‐output (MIMO) systems, these technologies can significantly improve network throughput, increase network power, boost energy and spectral efficiency, and enhance network coverage. Furthermore, ultra‐reliable vehicular communication and high capacity would be essential features of communication networks beyond 5G. Fortunately, when vehicles are moving on the road and communicating with each other, the vehicular communication issue becomes more challenging. Among the several new technologies expected to play significant roles in the 5G and beyond systems, this paper focused on summarizing the state‐of‐the‐art mmWave, vehicle‐to‐vehicle (V2V), and massive MIMO measurements and models. We introduce a detailed overview of each of the three technologies individually. Besides, novel taxonomies for the 5G channel measurements, objectives, and model types are provided. We expect that mmWave‐based massive MIMO technology enables real‐time channel estimation and ultra‐precise beamforming, and thus enables better service coverage. Finally, challenges and future research directions for 5G channel measurements and models are presented.
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Millimeter Wave Mobile Communications for 5G Cellular: It Will Work!
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Five disruptive technology directions for 5G
Federico Boccardi, Robert W. Heath, Angel Lozano et al. · IEEE Communications Magazine · 2014 · 3.8K citations · Full text
Computing, Electrical Engineering, Information Technology +17