DocumentCode
3391425
Title
An optimal neural network based call admission control protocol for high-speed networks: modeling and analysis
Author
Madubata, Christian ; Arozullah, Mohammed
Author_Institution
Tuskegee Univ., AL, USA
fYear
2003
fDate
16-18 March 2003
Firstpage
153
Lastpage
157
Abstract
Presents the development, modeling, analysis and performance evaluation of an optimal neural network based call admission control (CAC) protocol for high-speed Broadband Integrated Services Digital Networks. Thus neural network based CAC protocol simultaneously satisfies two quality of service (QoS) parameters, namely cell loss ratio (CLR) and delay. The protocol presented is suitable for "on-line" application and provides efficient network resource (buffer space and link capacity) utilization. The end-to-end delay and CLR values are divided among the nodes of the connection. For Poisson and ON-OFF sources, M/D/1/K and MMPP/D/1/K queuing models are developed. Analytical expressions at nodes for CLR and delay have are developed based on these models. These analytical expressions are used to develop a CAC protocols. The principles behind the Kohonen neural networks were used in the development and software implementation of this CAC protocol.
Keywords
B-ISDN; delays; quality of service; queueing theory; routing protocols; self-organising feature maps; Broadband Integrated Services Digital Networks; CAC protocol; Kohonen neural networks; M/D/I/K queuing models; MMPP/D/I/K queuing models; QoS; call admission control protocol; cell loss ratio; delay; end-to-end delay; high-speed networks; network resource; performance evaluation; Artificial intelligence; Call admission control; Delay; High-speed networks; Mathematical model; Neural networks; Performance analysis; Protocols; Quality of service; Queueing analysis;
fLanguage
English
Publisher
ieee
Conference_Titel
System Theory, 2003. Proceedings of the 35th Southeastern Symposium on
ISSN
0094-2898
Print_ISBN
0-7803-7697-8
Type
conf
DOI
10.1109/SSST.2003.1194548
Filename
1194548
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