DocumentCode
20797
Title
Hybrid millimeter-wave systems: a novel paradigm for hetnets
Author
Mehrpouyan, Hani ; Matthaiou, Michail ; Rui Wang ; Karagiannidis, George ; Yingbo Hua
Author_Institution
California State Univ., Fullerton, CA, USA
Volume
53
Issue
1
fYear
2015
fDate
Jan-15
Firstpage
216
Lastpage
221
Abstract
Heterogeneous networks, HetNets, are known to enhance the bandwidth efficiency and throughput of wireless networks by more effectively utilizing the network resources. However, the higher density of users and access points in HetNets introduces significant inter-user interference that needs to be mitigated through complex and sophisticated interference cancellation schemes. Moreover, due to significant channel attenuation and the presence of hardware impairments, e.g. phase noise and amplifier nonlinearities, the vast bandwidth in the millimeterwave band has not been fully utilized to date. In order to enable the development of multi-Gigabit per second wireless networks, we introduce a novel millimeter-wave HetNet paradigm, termed hybrid HetNet, which exploits the vast bandwidth and propagation characteristics in the 60 GHz and 70-80 GHz bands to reduce the impact of interference in HetNets. Simulation results are presented to illustrate the performance advantage of hybrid HetNets with respect to traditional networks. Next, two specific transceiver structures that enable hand-offs from the 60 GHz band, i.e. the V-band to the 70-80 GHz band, i.e. the E-band, and vice versa are proposed. Finally, the practical and regulatory challenges for establishing a hybrid HetNet are outlined.
Keywords
interference suppression; millimetre wave propagation; radio networks; radio transceivers; E-band; V-band; access points; amplifier nonlinearity; bandwidth efficiency; channel attenuation; frequency 60 GHz to 80 GHz; hardware impairments; heterogeneous networks; hybrid HetNet; hybrid millimeter-wave systems; inter-user interference; interference cancellation schemes; millimeter-wave HetNet paradigm; millimeterwave band; multigigabit per second wireless networks; network resources; phase noise; propagation characteristics; transceiver structures; wireless network throughput; 5G mobile communication; Attenuation; Bandwidth; Interference; Millimeter wave communication; Transceivers; Wireless communication;
fLanguage
English
Journal_Title
Communications Magazine, IEEE
Publisher
ieee
ISSN
0163-6804
Type
jour
DOI
10.1109/MCOM.2015.7010537
Filename
7010537
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