Accuracy comparison of propagation models for mmWave communication in NS-3

Millimeter wave (mmWave) communications have recently attracted large interest of research society, since the enormous available bandwidth can potentially lead to the excesive transmission rates per second per end-user. Due to its potential for multi-gigabit and low latency wireless links, millimeter wave (mmWave) technology is expected to play a central role in 5th Generation (5G) cellular systems. While there has been considerable progress in understanding the mmWave physical layer, innovations will be required at all layers of the protocol stack, in both the access and the core network. As the discrete-event network simulation is essential way for end-to-end, crosslayer research and development, this paper provides insights on our contribution to the recently-developed full-stack mmWave module for the Network Simulator 3. The module is interfaced with the core network of the NS3 LTE module (LENA) for full-stack simulations of end-to-end connectivity. We propose an NYUSIM model enhancement to obtain more accurate results in communication scenarios dealing with the building attenuation. Simulation data confirms that our modifications significantly affect the results and model more precisely the NLOS conditions of big obstacles like concrete office blocks. © 2017 IEEE.

Authors
Zeman K. 1, 2 , Masek P. 1, 2 , Stusek M.1 , Hosek J. 1, 2 , Silhavy P.1
Publisher
IEEE
Language
English
Pages
334-340
Status
Published
Volume
2017-November
Year
2018
Organizations
  • 1 Department of Telecommunications, Brno University of Technology, Brno, Czech Republic
  • 2 Peoples Friendship University of Russia, RUDN University, 6 Miklukho-Maklaya St, Moscow, 117198, Russian Federation
Keywords
5G mobile communication systems; Bandwidth; Control systems; Millimeter waves; Mobile telecommunication systems; Network layers; Office buildings; Accuracy comparisons; Available bandwidth; End-to-end connectivity; Millimeter waves (mmwave); Mm-wave Communications; Network simulators; Research and development; Transmission rates; Wireless telecommunication systems
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