Title :
Inside-Out Propagation: Developing a Unified Model for the Interference in 5G Networks
Author :
Hamid, Sanaa ; Al-Dweik, Arafat J. ; Mirahmadi, Maysam ; Mubarak, Khaled ; Shami, Abdallah
Abstract :
This article presents a generalized indoor-to-outdoor signal propagation model based on ray-tracing and exhaustive measurements campaign with the aim of developing a unified model for the interference in fifth-generation (5G) networks with femtocells underlying macrocells. It considers large buildings and typical residential houses. The objective is to capture the complex effects of the architectural layout, fading, shadowing, and building materials as well as to develop a practical nonsite-specific composite model to be used in the interference analysis and planning of next-generation networks, where not all information about the position of the transmitters or the building layouts is available. To that end, many different floor plans are considered, and the positions of the indoor transmitter are changed randomly. The obtained results reveal that the signal attenuation in the outdoor environment can be best characterized by a Gaussian-mixture (GM) distribution model.
Keywords :
5G mobile communication; Gaussian processes; femtocellular radio; mixture models; radio transmitters; radiofrequency interference; 5G network interference; 5G networks with femtocells; GM distribution model; Gaussian-mixture distribution model; building layouts; complex effects; generalized indoor-to-outdoor signal propagation model; indoor transmitter; inside out propagation; interference analysis; interference planning; macrocells; next-generation networks; signal attenuation; transmitters; unified model; Attenuation; Fading; Floors; Interference; Receivers; Transmitters;
Journal_Title :
Vehicular Technology Magazine, IEEE
DOI :
10.1109/MVT.2015.2410812