High Fidelity Simulation of IEEE 802.11ad in ns-3 Using a Quasi-deterministic Channel Model

Published: June 21, 2019

Author(s)

Hany Assasa, Joerg Widmer, Tanguy Ropitault, Anuraag Bodi, Nada T. Golmie

Abstract

Supporting high data-rates and a large number of connected devices has always been challenging for wireless technologies operating in the microwave band. Wireless communication in the millimeter band is a promising solution to address this challenge and deliver gigabit throughput and very low latency. However, efficient communication in this band poses a great challenge in terms of radio resource allocation, and requires adequate network planning and efficient design of wireless networking protocols. Despite the availability of commercial devices utilizing the IEEE 802.11ad protocol, these devices provide only limited access to the operations of the lower layers of the protocol stack, which hinders in-depth analysis and development of innovative solutions. For these reasons, researchers rely on high-fidelity system-level simulators to understand the interactions and behavior of millimeter-wave communication devices. In this paper, we demonstrate the capabilities of the IEEE 802.11ad model in ns-3. This model allows researchers to study the performance of the IEEE 802.11ad protocol for various deployment settings with high fidelity, using realistic phased antenna arrays and quasi-deterministic channel models. More particularly, we look at the impact of LOS blockage and the use of NLOS paths on link performance. In addition, we show the benefits of deploying multiple access points per room to guarantee gigabit throughput per user. Finally, we evaluate the performance of the IEEE 802.11ad protocol in a typical high density scenario consisting of a single access point and ten stations.
Conference Dates: June 21, 2019
Conference Location: Florence, -1
Conference Title: Workshop on Next-Generation Wireless with ns-3
Pub Type: Conferences

Keywords

MillimeterWave, IEEE 802.11ad, Q-d Channel, 60 GHz, WiGig, ns-3, Simulations
Created June 21, 2019, Updated July 02, 2019