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ELIMINATE THE INTERFERENCE IN 5G ULTRA-WIDE BAND COMMUNICATION ANTENNAS IN CLOUD COMPUTING NETWORKS


Affiliations
1 Department of Information Technology, K.L.N. College of Engineering., India
2 Department of Electronics and Communication Engineering, Sri Eshwar College of Engineering, India
3 SPC Free Zone., United Arab Emirates
     

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In this era of technology, every day we see a new change in new development. It is truly astonishing the impressive speed we are seeing, especially in communication technology. This is where 5G comes into play. Transmission stations carry a small amount of transmitted coded signal. Especially when setting up antennas, use them. However, classical versions are based on inductive communication via a measured oscillating circuit. In most cases their small impulses do not allow sufficient contact with antenna elements, for example, with a wire frame. As a result, the indication of the frequency of the element becomes unclear, which leads to significant measurement errors. In this paper, a smart construction of 5G ultra-wide band communication antennas is designed to eliminate the interferences in cloud computing networks. The proposed design simply solved this problem by making a simple special girder to construct its “double square” elements. In a cut-off signal level, the proposed UWBCA design achieved 97.70% of peak data rate, 96.61% of antenna latency, 94.81% of antenna capacity, 96.33% of spectral efficiency and 94.99% of connection density. This proposed design increases its constructive efficiency and contact area from the classic types and prevents interference.

Keywords

Communication Technology, 5G, Transmission Stations, Coded Signal, Antennas, Inductive Communication, Oscillating Circuit, Ultra-Wide Band, Cloud Computing
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  • ELIMINATE THE INTERFERENCE IN 5G ULTRA-WIDE BAND COMMUNICATION ANTENNAS IN CLOUD COMPUTING NETWORKS

Abstract Views: 315  |  PDF Views: 0

Authors

G. Ramesh
Department of Information Technology, K.L.N. College of Engineering., India
J. Logeshwaran
Department of Electronics and Communication Engineering, Sri Eshwar College of Engineering, India
V. Aravindarajan
Department of Information Technology, K.L.N. College of Engineering., India
Feny Thachil
SPC Free Zone., United Arab Emirates

Abstract


In this era of technology, every day we see a new change in new development. It is truly astonishing the impressive speed we are seeing, especially in communication technology. This is where 5G comes into play. Transmission stations carry a small amount of transmitted coded signal. Especially when setting up antennas, use them. However, classical versions are based on inductive communication via a measured oscillating circuit. In most cases their small impulses do not allow sufficient contact with antenna elements, for example, with a wire frame. As a result, the indication of the frequency of the element becomes unclear, which leads to significant measurement errors. In this paper, a smart construction of 5G ultra-wide band communication antennas is designed to eliminate the interferences in cloud computing networks. The proposed design simply solved this problem by making a simple special girder to construct its “double square” elements. In a cut-off signal level, the proposed UWBCA design achieved 97.70% of peak data rate, 96.61% of antenna latency, 94.81% of antenna capacity, 96.33% of spectral efficiency and 94.99% of connection density. This proposed design increases its constructive efficiency and contact area from the classic types and prevents interference.

Keywords


Communication Technology, 5G, Transmission Stations, Coded Signal, Antennas, Inductive Communication, Oscillating Circuit, Ultra-Wide Band, Cloud Computing

References