This paper presents an omnidirectional spatial and temporal 3-dimensional statistical channel model for 28 GHz dense urban non-line of sight environments. The channel model is developed from 28 GHz ultrawideband propagation measurements obtained with a 400 megachips per second broadband sliding correlator channel sounder and highly directional, steerable horn antennas in New York City. A 3GPP-like statistical channel model that is easy to implement in software or hardware is developed from measured power delay profiles and a synthesized method for providing absolute propagation delays recovered from 3-D ray-tracing, as well as measured angle of departure and angle of arrival power spectra. The extracted statistics are used to implement a MATLAB-based statistical simulator that generates 3-D millimeter-wave temporal and spatial channel coefficients that reproduce realistic impulse responses of measured urban channels. The methods and model presented here can be used for millimeter-wave system-wide simulations, and air interface design and capacity analyses.
@article{arxiv.1503.05619,
title = {3-D Statistical Channel Model for Millimeter-Wave Outdoor Mobile Broadband Communications},
author = {Mathew K. Samimi and Theodore S. Rappaport},
journal= {arXiv preprint arXiv:1503.05619},
year = {2015}
}
Comments
7 pages, 6 figures, ICC 2015 (London, UK, to appear)