As shown in Figures 1.13 and 1.14, the authors write up an algorithm that offered the changed RGA methodology for allocating the best positions of the long run 5G base stations. Figure 1.15 indicates the working example of transmission algorithm mentioned in Figure 1.14. The changed RGA has achieved sufficiently higher performance in terms of transmitting power-saving and total connected users for 5G networks with providing the best coverage. The changed RGA has found success with the tidy higher configuration by scrutinizing with standard Delaware and RGA to find the correct location and to adjust the varying ability level further to coverage constraints. In the current and future work they are going to study the best BSs (Base Stations) and their price relating to frequency level victimization a complicated Semitic deity. We are going to conjointly investigate the written record evolution of the energy within the normal of satisfactory QoS (Quality of Services).
Figure 1.13 Illustrative example ofthe proposed algorithm [41].
Figure 1.14 The algorithm for the transmission [41].
Figure 1.15 An illustrative example of the working of the transmission algorithm [41].
1.6 Conclusion & Future Work
In today’s era, almost everything is connected through the Internet. IoT devices network is a prominent example of it, and it leads to the requirement of faster communication network such as 5G. With faster communication, we can yield full capabilities of IoT devices in the various application domains such as healthcare, I-IoT, agriculture, etc. Presently some issues exist such as transmission efficiency and cell power utilization with limited solutions for these issues. In future more efficient algorithms, protocols and viable solution are required and will be developed to get the maximum potential of IoT devices with the 5G network.
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