DocumentCode
1424550
Title
Cellular performance bounds via shotgun cellular systems
Author
Brown, Timothy X.
Author_Institution
Dept. of Electr. & Comput. Eng., Colorado Univ., Boulder, CO, USA
Volume
18
Issue
11
fYear
2000
Firstpage
2443
Lastpage
2455
Abstract
This paper considers two-dimensional interference-limited cellular radio systems. It introduces the shotgun cellular system that places base stations randomly and assigns channels randomly. Such systems are shown to provide lower bounds to cellular performance that are easy to compute, independent of shadow fading, and apply to a number of design scenarios. Traditional hexagonal systems provide an upper performance bound. The difference between upper and lower bounds is small under operating conditions typical in modern TDMA and CDMA cellular systems. Furthermore, in the strong shadow fading limit, the bounds converge. To give insights into the design of practical systems, several variations are explored including mobile access methods, sectorizing, channel assignments, and placement with deviations. Together these results indicate cellular performance is very robust and little is lost in making rapid minimally planned deployments.
Keywords
cellular radio; channel allocation; cochannel interference; code division multiple access; fading channels; telecommunication network planning; time division multiple access; CDMA; TDMA; hexagonal systems; lower bounds; mobile access methods; performance bounds; random base stations placement; random channel assignment; rapid minimally planned deployments; sectorizing; shotgun cellular systems; strong shadow fading limit; two-dimensional interference-limited cellular radio; upper bounds; Base stations; Character generation; Fading; Graph theory; Interchannel interference; Land mobile radio cellular systems; Multiaccess communication; Personal communication networks; Robustness; Time division multiple access;
fLanguage
English
Journal_Title
Selected Areas in Communications, IEEE Journal on
Publisher
ieee
ISSN
0733-8716
Type
jour
DOI
10.1109/49.895048
Filename
895048
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