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Forward-link throughput optimization for wireless cellular packet data networks
Keywords:
GSM/GPRS coding, Payload, SINR, Payload length, OptimizationAbstract
An attempt has been made in this paper to access the control layer of the General Packet Radio Service (GPRS) network base station (BS), using throughput optimization. We focus on the effect of packet transmissions on the throughput of forwardlink (downlink) power balancing, with specific interest on the relative throughput of the four GPRS coding schemes for a realistic GPRS network operating in Nigeria. We derive a model capable of improving the channel quality and simulate the throughput and choice of optimum coding scheme over diverse packet sizes using the MATrix LABoratory toolkit. Simulation results show that the existing system requires effective network optimization to improve the system’s throughput performance.
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References
[1] Rodriguez V. and Goodman D. J. (2003). Prioritized Throughput Maximization via Rate and Power Control for 3G CDMA: The Two Terminal Scenario. In Proceedings of 40 th Allerton Conference Communication, Control and Computing.
[2] Goodman D. (2005). Performance Analysis of Radio Link/Media Access Control of General Packet Radio Service System, Ph.D. Thesis Report. WINLAB TR 209.
[3] Hamalainen D. and Kari P. (1995). Handover and Dynamic Channel Allocation Techniques in Mobile Cellular Network. IEEE Transaction on Vehicular Technology. 44(20):229-237.
[4] Bali S. A. (2001). Study of the Throughput of General Packet Radio Service (GPRS) for Internet Applications. M.Sc. Thesis, University of Jordan, Jordan.
[5] Lindemann C. and Thümmler A. (2001). Evaluating the GPRS Radio Interface for Different Quality of Service Profiles. In Proceedings of 12 th GI/ITG Fachtagung Kommunikation in Verteilten Systemen (KiVS), Hamburg, Germany: 291-301.
[6] Larson R. and Olofsson D. (1998). Handover and Dynamic Channel Allocation Techniques in Mobile Cellular Network. IEEE Transaction on Vehicular Technology. 44(2):120-143.
[7] Cai J. and Goodman D. (1997). General Packet Radio Service in GSM. IEEE Communication Magazine. 35: 122-131.
[8] Sung C. W. and Wong W. S. (2002). Power Control and Rate Management for Wireless Multi-media CDMA system. IEEE Transactions on Communication. 49(7): 1215-1226.
[2] Goodman D. (2005). Performance Analysis of Radio Link/Media Access Control of General Packet Radio Service System, Ph.D. Thesis Report. WINLAB TR 209.
[3] Hamalainen D. and Kari P. (1995). Handover and Dynamic Channel Allocation Techniques in Mobile Cellular Network. IEEE Transaction on Vehicular Technology. 44(20):229-237.
[4] Bali S. A. (2001). Study of the Throughput of General Packet Radio Service (GPRS) for Internet Applications. M.Sc. Thesis, University of Jordan, Jordan.
[5] Lindemann C. and Thümmler A. (2001). Evaluating the GPRS Radio Interface for Different Quality of Service Profiles. In Proceedings of 12 th GI/ITG Fachtagung Kommunikation in Verteilten Systemen (KiVS), Hamburg, Germany: 291-301.
[6] Larson R. and Olofsson D. (1998). Handover and Dynamic Channel Allocation Techniques in Mobile Cellular Network. IEEE Transaction on Vehicular Technology. 44(2):120-143.
[7] Cai J. and Goodman D. (1997). General Packet Radio Service in GSM. IEEE Communication Magazine. 35: 122-131.
[8] Sung C. W. and Wong W. S. (2002). Power Control and Rate Management for Wireless Multi-media CDMA system. IEEE Transactions on Communication. 49(7): 1215-1226.
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Published
2011-10-03
How to Cite
Ekpenyong, M. E. (2011). Forward-link throughput optimization for wireless cellular packet data networks. Journal of Computer Science and Technology, 11(02), p. 74–80. Retrieved from https://journal.info.unlp.edu.ar/JCST/article/view/671
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