Spatial Variation of the Received Signal Strength of Mobile Telephone Network (MTN) over Dutsin-Ma Town, Katsina State, Nigeria

DOI: https://doi.org/10.33003/jobasr-2023-v1i1-19

Akpaneno, A. Francis.

Akinbolati, Akinsanmi.

Ekundayo, R. Kehinde.

Abstract
The need for coverage areas assessment is important at ensuring quality of service. This study investigated the spatial variation of the Received Signal Strength (RSS) of MTN in Dutsin-Ma Town, Katsina State, Nigeria. The RSS was measured along four different routes from the main Transmitting Base Station (TBS) located at Unity Bank area using an Android Smartphone Samsung Galaxy Model A20. GPS receiver was used to monitor the elevation, geographic coordinates and Line-of-Sight of the various data points from the TBS up to about 2 km for each route using drive test protocol. Three sets of measurements were carried out covering morning, afternoon and evening. The obtained data were used to classify the coverage areas into Primary, Secondary, Tertiary and Fringe based on 3/4G-GSM standards. From the results, the mean values of the RSS for Routes A, B, C and D were -62, -91 and -75 dBm; -71, -90 and -85 dBm; -68, - 99 and -83 dBm; -63, -93 and -83 dBm for morning, afternoon and evening respectively. These findings revealed that MTN RSS is more reliable in the morning and evening compared to the afternoon over Dutsin-Ma. This could be attributed to higher tower load which characterizes the afternoon times compared to morning and evening. Results also revealed that Route A, has the Best Area Network coverage, followed by routes D and B, while route C recorded the weakest. MTN Nigeria is advised to site more TBS in Dutsin-Ma to improve their quality of services in the community.
References
Akinbolati A., Akinsanmi, O. and Ekundayo, K. R. (2016) Signal Strength Variation and Propagation Profiles of UHF Radio Wave Channel in Ondo State, Nigeria, International Journal of Wireless and Microwave Technologies (IJWMT), 6(4), 12-27, Akinbolati, A., and M. O. Ajewole, (2020). Investigation of Path Loss and Modeling for Digital Terrestrial Television over Nigeria, Elsevier Heliyon, e04101, https://doi.org/10.1016/j.heliyon.2020.e04101 Akinbolati, A., Olanegan, O. O. and Adetunji, A. A. (2018). Mathematical Modeling of a UHF Signal’s Propagation Curve”, American Journal of Engineering Research, 7(2), 227-235 Ati, O.F (2016), Climate Change: Fact, Fiction and Faction, An Inaugural Lecture delivered at Federal University Dutsin- Ma, Katsina State, 9-25. Bello, M.O. (2010). Effects of the Location of GSM Base Stations on Satisfaction of Occupiers and Rental Value of Proximate Residential Property. Journal of Computer and Information Science, 3(4), 159 — 170 Hahn, H.P. and Kibora, L. (2008). The domestication of the mobile phone: Oral Society and New ICT in Burkina Faso. The Journal of Modern African Studies. 46(1): p. 87-109. Nigeria Bureau of Statistics (2015). Nigeria Telecommunications Sector: Quarter 1, 2015 summary report. Okeke, (2014). Factors Influencing the choice of GSM Network Among Oil and Gas Workers in Port Harcout, Nigeria. Int J Emerging Knowledge,2 (2) pp.8-22. Okereke, O. U. and Abdullahi, B. (2006). Effects of Tropospheric Refractivity Variations on GSM Signals in Bauchi Metropolis, Science Forum: Journal of Pure and Applied Science 9(1), pp. 32-40. Okoro, R., A. Menkiti, and M. Onuu, (2008). Choice of Computer Networking Cables and their Effect on Data Transmission. Global Journal of Pure and Applied Sciences, 14(4): pp.433-437. Parikh, P.P., M.G. Kanabar, and Sidhu, T.S. (2010). Opportunities and challenges of Wireless Communication Technologies for Smart Grid Applications, IEEE Power and Energy Society General Meeting. Popoola, J., Megbowon, I. and Adeloye, V. (2009). Performance evaluation and improvement on quality of service of global system for mobile communications in Nigeria. Journal of Information Technology Impact. 9(2): p. 91-106. Researchgate.net www.britannica.com. www.strike.com.au www.wiki.teltonika
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