Page 41 - ITU Journal: Volume 2, No. 1 - Special issue - Propagation modelling for advanced future radio systems - Challenges for a congested radio spectrum

ITU Journal: ICT Discoveries, Vol. 2(1), December 2019

[7] Y. Corre, T. Tenoux, J. Stéphan, F. Letourneux [11] J. Stephan, Y. Corre, R. Charbonnier and Y.
and Y. Lostanlen, “Analysis of Outdoor Lostanlen, “Increased Reliability of Outdoor
Propagation and Multi-Cell Coverage from Millimeter-Wave Link Simulations by
Ray-Based Simulations in sub-6GHz and Leveraging Lidar Point Cloud”, in the Proc. of
mmWave Bands”, in the Proc. of the 10th the 12th European Conf. on Antennas and
European Conf. on Antennas and Propagation Propagation (EuCAP), London, April 2018.
(EuCAP), Davos, April 2016.
[12] P. Agyapong, V. Braun, M. Fallgren et al., ICT
[8] ITU-R P2040-1, Effects of building materials METIS, Deliverable D6.1: simulation
and structures on radiowave propagation guidelines, October 2013.
above about 100 MHz, July 2015.
[13] ITU-R P.833-9, Attenuation in vegetation,
[9] BRAVE, Deliverable D2.0, Propagation September 2016.
channel model and RF impairments definition,
February 2019.
[10] Y. Corre and Y. Lostanlen, “Three-
dimensional urban EM wave propagation
model for radio network planning and
optimization over large areas,” IEEE
Transactions on Vehicular Technology, 2009.

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