Title :
Application of artificial neural networks to effective bandwidth estimation in ATM networks
Author :
Fan, Zhong ; Mars, Philip
Author_Institution :
Sch. of Eng., Durham Univ., UK
Abstract :
A prime instrument for controlling congestion in ATM networks is admission control, which limits calls and guarantees a grade of service (GOS) determined by delay and loss probability in the multiplexer. It is essential for an admission control scheme to characterize, for a given GOS, the effective bandwidth requirement of the aggregate bandwidth usage of multiplexed connections. In this paper, an accurate and computationally efficient approach is proposed to estimate the effective bandwidth of multiplexed connections. In this method, a feedforward neural network is employed to model the complex relationship between the effective bandwidth and the traffic situations and a GOS measure. It is trained and tested via a large number of patterns generated by the accurate fluid flow model. Due to the neural network´s adaptive learning, high computation rate and generalization features, this method can increase the link utilization and is suitable for real-time network traffic control applications
Keywords :
asynchronous transfer mode; feedforward neural nets; generalisation (artificial intelligence); multilayer perceptrons; telecommunication congestion control; telecommunication traffic; ATM networks; adaptive learning; admission control scheme; aggregate bandwidth usage; artificial neural networks; bandwidth estimation; congestion control; delay; feedforward neural network; fluid flow model; generalization features; grade of service; high computation rate; loss probability; multiplexed connections; multiplexer; real-time network traffic control; Admission control; Aggregates; Artificial neural networks; Asynchronous transfer mode; Bandwidth; Feedforward neural networks; Instruments; Multiplexing; Neural networks; Traffic control;
Conference_Titel :
Neural Networks, 1996., IEEE International Conference on
Conference_Location :
Washington, DC
Print_ISBN :
0-7803-3210-5
DOI :
10.1109/ICNN.1996.549200