DocumentCode
3433778
Title
Performance of 802.11b/g in the Interference Limited Regime
Author
Sridhara, Vinay ; Shin, Hweechul ; Bohacek, Stephan
Author_Institution
Univ. of Delaware, Newark
fYear
2007
fDate
13-16 Aug. 2007
Firstpage
979
Lastpage
984
Abstract
Signal to interference plus noise ratio, SINR, is one of the main factors that affects the quality of wireless communication. While the impact of white Gaussian noise on a wireless channel is well understood, impact of interference remains one of the less explored areas. With the deployment of dense mesh networks, the interference will be a dominant factor that affects the transmission errors. This paper explores the performance of 802.11b/g when subject to interference. The findings are based on various controlled experiments in the laboratory setting. One finding of this work is that in contrast to communication over links where the noise is Gaussian, in 802.11b/g, the probability of successfully transmitting a packet is dominated by the ability of the receiver to synchronize with the carrier. As a result, changing to a lower bit-rate with same synchronization scheme will not make the transmission more resilient to interference. The significance of this result on bit-rate selection is briefly explored.
Keywords
Gaussian noise; interference (signal); synchronisation; white noise; wireless LAN; wireless channels; 802.11b/g; SINR; interference limited regime; mesh network; signal to interference plus noise ratio; synchronization; white Gaussian noise; wireless LAN; wireless channel; wireless communication; Access protocols; Computer errors; Decoding; Error probability; Gaussian noise; Interference; Laboratories; Mesh networks; Signal to noise ratio; Transmitters;
fLanguage
English
Publisher
ieee
Conference_Titel
Computer Communications and Networks, 2007. ICCCN 2007. Proceedings of 16th International Conference on
Conference_Location
Honolulu, HI
ISSN
1095-2055
Print_ISBN
978-1-4244-1251-8
Electronic_ISBN
1095-2055
Type
conf
DOI
10.1109/ICCCN.2007.4317945
Filename
4317945
Link To Document