6533b81ffe1ef96bd1278734

RESEARCH PRODUCT

Propagation Channels for mmWave Vehicular Communications : State-of-the-art and Future Research Directions

Furqan JameelSyed Junaid NawazZheng ChangShurjeel Wyne

subject

Signal Processing (eess.SP)FOS: Computer and information sciencesComputer scienceComputer Science - Information Theoryfrequency bandsAutomotive industry02 engineering and technologyFOS: Electrical engineering electronic engineering information engineering0202 electrical engineering electronic engineering information engineeringajoneuvotElectrical and Electronic EngineeringElectrical Engineering and Systems Science - Signal ProcessingHigh data rateta213business.industryInformation Theory (cs.IT)Bandwidth (signal processing)020206 networking & telecommunicationsMicrowave transmissionwireless communicationComputer Science ApplicationsvehiclesExtremely high frequencylangaton viestintätaajuusalueetCellular frequenciesMobile telephonybusinessTelecommunicationsCommunication channel

description

Vehicular communications essentially support automotive applications for safety and infotainment. For this reason, industry leaders envision an enhanced role for vehicular communications in the fifth generation of mobile communications technology. Over the years, the number of vehicle- mounted sensors has increased steadily, which potentially leads to more volume of critical data communications in a short time. Also, emerging applications such as remote/autonomous driving and infotainment such as high-definition movie streaming require data-rates on the order of multiple Gb/s. Such high data rates require a large system bandwidth, but very limited bandwidth is available in the sub-6 GHz cellular bands. This has sparked research interest in the millimeter wave (mmWave) band (10 GHz-300 GHz), where a large bandwidth is available to support the high data rate and low latency communications envisioned for emerging vehicular applications. However, leveraging mmWave communications requires a thorough understanding of the relevant vehicular propagation channels, which are significantly different from those investigated below 6 GHz. Despite their significance, very few investigations of mmWave vehicular channels are reported in the literature. This work highlights the key attributes of mmWave vehicular communication channels and surveys the recent literature on channel characterization efforts in order to provide a gap analysis and propose possible directions for future research. peerReviewed

10.1109/mwc.2018.1800174http://juuli.fi/Record/0339608319