TY - GEN
T1 - Delay, throughput and packet absorption rate analysis of heterogeneous WMN
AU - Chien, Su Fong
AU - Lo, Ka Kien
AU - Kwong, Kae Hsiang
AU - Poh, Geong Sen
AU - Chieng, David
PY - 2012
Y1 - 2012
N2 - The pioneering work of Gupta and Kumar [1] has inspired many subsequent studies on asymptotically achievable per node throughput and delay analysis for wireless networks. In this paper, we evaluate the delay and maximum achievable per node throughput of a heterogeneous wireless mesh network (HWMN). We derive an analytical model which incorporates diffusion approximation method [2] and then compare with the results of per node information theoretic capacity done by P. Li and Y.G. Fang [3]. The network topology consists of n normal nodes and m more powerful helping nodes in a rectangular area. Results show that higher magnitude of exponent w gives higher absorption probability which consequently reduces the delay. We found that the derived maximum achievable per node throughput is inversely proportional to the average number of hops traversed by packets, node density, and number of squares in the network. Also, we are able to obtain the result stated in [1] i.e., maximum achievable per-node throughput is according to ΘW1/√nlogn, where W1 is normal node transmission bandwidth.
AB - The pioneering work of Gupta and Kumar [1] has inspired many subsequent studies on asymptotically achievable per node throughput and delay analysis for wireless networks. In this paper, we evaluate the delay and maximum achievable per node throughput of a heterogeneous wireless mesh network (HWMN). We derive an analytical model which incorporates diffusion approximation method [2] and then compare with the results of per node information theoretic capacity done by P. Li and Y.G. Fang [3]. The network topology consists of n normal nodes and m more powerful helping nodes in a rectangular area. Results show that higher magnitude of exponent w gives higher absorption probability which consequently reduces the delay. We found that the derived maximum achievable per node throughput is inversely proportional to the average number of hops traversed by packets, node density, and number of squares in the network. Also, we are able to obtain the result stated in [1] i.e., maximum achievable per-node throughput is according to ΘW1/√nlogn, where W1 is normal node transmission bandwidth.
KW - Helping node
KW - Heterogeneous wireless
KW - User node
KW - Wireless mesh network
UR - http://www.scopus.com/inward/record.url?scp=84880175354&partnerID=8YFLogxK
U2 - 10.1049/cp.2012.2085
DO - 10.1049/cp.2012.2085
M3 - Conference contribution
AN - SCOPUS:84880175354
SN - 9781849195508
T3 - IET Conference Publications
BT - IET International Conference on Wireless Communications and Applications, ICWCA 2012
T2 - IET International Conference on Wireless Communications and Applications, ICWCA 2012
Y2 - 8 October 2012 through 10 October 2012
ER -