ANALYSIS OF REAL MOBILE TELEPHONY TRAFFIC SCENARIOS USING A UNIVERSAL SIMULATION PROGRAM

Authors

  • ALEXANDAR LEBL Department of Radiocommunications, IRITEL a.d., Batajnički put 23, 11080 Zemun, Serbia Author
  • DRAGAN MITIĆ Department of Optical Communications, IRITEL a.d., Batajnički put 23, 11080 Zemun Serbia Author
  • ŽARKO MARKOV Department of Radiocommunications, IRITEL a.d., Batajnički put 23, 11080 Zemun, Serbia Author
  • MLADEN MILEUSNIĆ Department of Radiocommunications, IRITEL a.d., Batajnički put 23, 11080 Zemun, Serbia Author
  • VLADIMIR MATIĆ Department of Radiocommunications, IRITEL a.d., Batajnički put 23, 11080 Zemun, Serbia Author

Keywords:

Mobile users cell, Traffic channels, Calculation models, Simulation

Abstract

The paper considers a group of channels in a cell of mobile users. Estimating serving properties in a group is not simply because a high complexity of the traffic process does not allow the implementation of Erlang and other known calculation procedures. The cell characteristics are a limited number of traffic sources, external and intra-cell traffic, and prioritized serving of handover traffic (with channel reservation). Universal simulation program which allows properties estimation (for example, traffic loss) of such a model with several input parameters has been developed. The main paper contributions are summarized as 1. simplifying and, in some cases, even enabling analysis of complex traffic scenarios in mobile telephony systems; 2. it is allowed to follow these systems' behaviour when input parameters (number of reserved traffic channels only for handover calls, part of intra-cell traffic in total traffic, number of mobile users in the cell) one by one or at the same time gradually approach their limiting values. The simulation model verification is performed using the model where one or two factors are missing among the total number of factors for which calculation procedures exist. The description of the simulation program and numerical examples are presented in the paper.

References

(1) B. Jabbari, Teletraffic aspects of evolving and next-generation wireless communication networks, IEEE Personal Communications, 3, 6, pp. 4–9 (1996).

(2) J.V. Agustina, P. Yhang, R. Kantola: Performance evaluation of GSM handover traffic in a GPRS/GSM network, Eighth International Symposium on Computers and Communications ISCC 2003, Finland, pp. 137-142, June-July 2003.

(3) A.A. Adewale, S.N. John, E.R.Adagunodo: Performance Comparison of Dynamic Guard Channel Assignment with Buffered Prioritized Scheme for Mobile WiMAX Network, In Proceedings of the World Congress on Engineering 2016, I WCE 2016, pp. 1-5, June 29th - July 1st 2016, London.

(4) A.E. Xhafa, O.K. Tonguz, Dynamic Priority queueing of handover calls in wireless networks: an analytical framework, IEEE Journal on Selected Areas in Communications, 22, 5, pp. 904-916 (June 2004).

(5) R. Beraldi, S. Marano, E. Palumbo: Analysis of new priority queueing strategies for handoff and originating calls in mobile cellular radio systems, In Proceedings of the IEEE Conference: Wireless Communications System Symposium, pp. 63-69, 1995.

(6) T. Thumthawatworn, A. Pervez, P. Santiprabhob, Enhanced adaptive traffic dependent handover decision system for wireless mobile networks, International Journal on Advances in Networks and Services, 7, 1&2, p. 118-129 (2014).

(7) D. Mitić, A. Lebl, Ž. Markov, V. Kosjer, Determination of the traffic properties of cells with mobile users using a mixed traffic, Radioengineering, 28, 4, pp. 801-814 (December 2019).

(8) T. Šuh, P. Jovanović, A. Lebl, D. Mitić, Ž. Markov, Comparison of the influence of intra-cell traffic and finite number of mobile phones on the determination of number of channels in the BTS of GSM network, Frequenz, 68, 3-4, pp. 171-176 (March 2014).

(9) MD.B. Al Sadi, A. Nadia, Call admission scheme for multidimensional traffic assuming finite handoff user, J. of Computer Networks and Communications, pp. 1-5 (2017), Article ID 6101568

(10) A. Anand, V, Pejović, E.M. Belding, D.L. Johnson, VillageCell: cost effective cellular connectivity in rural areas, The Fifth International Conference on Information and Communication Technologies and Development, ICTD’12, Atlanta, 2012

(11) H.M. Canales, A. Valdovinos, Trunking capacity estimation for wide area multicell private mobile radio networks, AEÜ, 64, 1, pp. 8-16 (2010).

(12) V.G. Vassilakis, M.D. Logothetis, The wireless ENGSET multi-rate loss model for the handoff traffic analysis in W-CDMA networks, IEEE 19th International Symposium on Personal, Indoor and Mobile Radio Communications, PIMRC 2008, pp. 15-18 (September 2008), Cannes, France,

(13) S. Bhattacharya, G. Mishra, S. Kar, H.M. Gupta: Mobility modeling and traffic analysis in an indoor environment using handoff traffic with general distribution, M2USIC 2005, TS08, MMU International Symposium on Information and Communications Technology (M2USIC 2005), Kuala Lumpur, Malaysia, 24th - 25th November 2005.

(14) V.B. Iversen, Teletraffic Engineering and Network Planning, Technical University of Denmark, 2015.

(15) N. Rönblom, Traffic loss of a circuit group consisting of both-way circuits which is accessible for the intrnal and external traffic of a subscriber group, Teleteknik (English edition), 2 (1959).

(16) P. Jovanović, T. Šuh, A. Lebl, D. Mitić, Ž. Markov, Influence of intra-cell connections on the traffic calculations of radio resources in mobile network, Frequenz, 67, 9-10, pp. 315–320 (September 2013).

(17v ***Siemens Aktiengesellschaft, Telephone Traffic Theory Tables, and Charts, Part 1, 2nd revised Edition, Berlin – München, 1970.

(18.)M. Schwartz, Mobile wireless communications, Cambridge University Press, 2005.

(19.)D. Mitić, A. Lebl, Ž. Markov, Influence of traffic model on the calculation of BTS output power in GSM network, Archüv für Elektronik und Übertragungstechnik, (AEÜ), 69, 5, pp. 836-840 (May 2015).

(20) A. Lebl, D. Mitić, B. Trenkić, Ž. Markov, Determination of base station emission power change in a mobile network cell with movable users, Radioengineering, 27, 4, pp. 1174-1182 (December 2018).

(21) I. Ngamroo, Two-level inter-area oscillation dampers design by Monte Carlo simulation, Rev. Roum. Sci. Techn - Elektrotechn. et Energ., 64, 3, pp. 211-216 (December 2018).

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Published

30.09.2022

Issue

Section

Électronique et transmission de l’information | Electronics & Information Technology

How to Cite

ANALYSIS OF REAL MOBILE TELEPHONY TRAFFIC SCENARIOS USING A UNIVERSAL SIMULATION PROGRAM. (2022). REVUE ROUMAINE DES SCIENCES TECHNIQUES — SÉRIE ÉLECTROTECHNIQUE ET ÉNERGÉTIQUE, 67(3), 313-319. https://journal.iem.pub.ro/rrst-ee/article/view/157