Wireless Networking Report: Design, Analysis, and Implementation

This report delves into the realm of wireless networking, focusing on the design and analysis of cellular systems. The report begins by examining the design of cells, including the use of small and large radius cells and the placement of base stations. It then discusses the factors influencing wireless network design, such as communication power, the grade of service, frequency reuse, cost considerations, and scalability. The report further highlights the differences between metropolitan and rural areas in terms of base station density and communication power. The report provides insights into the practical aspects of wireless network implementation, including the impact of cell splitting on channel capacity. The report concludes with a list of references used in the report. This report is a valuable resource for students studying wireless communication and network design, offering a comprehensive overview of key concepts and practical considerations.

Running head: WIRELESS NETWORKING
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Name of Student
Name of University
Author’s Note

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Answer 3
1. Design proposal
Diagram 3: center- excited cell Diagram 2: edge-excited cell
i. Cells having small radius.
Diagram 2 has been depicting the scheme that is to be followed. The radius has been
proposed as per the monitor cell and has been designated as the higher population in the
location where the need of extra capacity is required. Location of the base points have
been done in the 6 highpoints that are present in the cell (Basnayaka, Smith & Martin
2013). This section is collaborated with the sectoral antennas as per the concentrated
capacity. Cell splitting can be performed in this case. Lower power is found to be
important in the process.
ii. Cells with large radius
This system has been well described as per the diagram that is made. This system finds
its usage in location that has low capacity and hence the management of the process is
performed as per having a bigger radius and hence population capacity that is being
served will be of low population (Ohaneme et al 2012). The base stations are present in
the middle of the cell. Power required for transmission process is very high.

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2. Reasons for design
a. Conveyance power: it is seen that the communication power of metropolitan
regions have been low. The main reason behind this aspect is that the processing
of the numbers of the base stations are high. Whereas the communication power if
the rural locations have been high. This insists the fact that the number of base
stations present is lower than that of the metropolitan city.
b. Grade of service: With the help of the omnidirectional and the sectoral directioan
tentacles, grade of service can be enhanced.
c. Frequency reuse: Re processing of the metropolitan locations are highly linked
with that of the sub urban and rural areas due to excessive need of frequency in
metropolitan location.
d. Cost required: Up keeping cost required is least in the process.
e. Scalability: Demand of the required volume has been increasing. Hence addition
of base stations are done and no modification in the existing base stations are
done.

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References
Basnayaka, D. A., Smith, P. J., & Martin, P. A. (2013). The effect of macrodiversity on the
performance of maximal ratio combining in flat Rayleigh fading. IEEE Transactions on
Communications, 61(4), 1384-1392.
Ohaneme, C. O., Onoh, G. N., Ifeagwu, E. N., & Eneh, I. I. (2012). Improving channel capacity
of a cellular system using cell splitting. International Journal of Scientific & Engineering
Research. Retrieved from http://www. ijser. org/researchpaper% 5CIMPROVING-
CHANNEL-CAPACITY-OF-A-CELLULAR-SYSTEMUSING-CELL-SPLITTING. pdf.

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References
Gharipour, A., & Liew, A. W. C. (2016). Segmentation of cell nuclei in fluorescence microscopy
images: An integrated framework using level set segmentation and touching-cell
splitting. Pattern Recognition, 58, 1-11.
Li, H., Yang, Q., Li, G., Li, M., Wang, S., & Song, Y. (2015). Splitting a droplet for femtoliter
liquid patterns and single cell isolation. ACS applied materials & interfaces, 7(17), 9060-
9065.