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Design of Wireless Passive Optical Communication Network Based On Fusion of Fibre to the Home Architecture

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Abstract

The steady increase in the demand for broadband services and the consequent increase in the volume of generated traffic in our communication networks have motivated the need to implement next generation networks in our territories. Optical Fibre cable is used as media to design long/short network and it supports high bandwidth in Gigabits per second speed. Earlier OFC is used to connect the long distance places and called Optical Transport Network and presently used even in local/Access network called Optical Access Network. In present environment data to be transmitted is so high due to growth in internet. Successful transmission of such a huge bandwidth is big challenging job for long distance network designer. All customers require the QOS and they are interested to make SLA for their service to be obtained from Service provider. ISP should design their network to support the customer requirement suitably otherwise ISP cannot survive in this competitive environment. This paper aims to explain the design and planning of a passive optical network based fiber to the home architecture. The main idea of this paper is to build a fabricated environment that allows us to analyse the depth on FTTx networks and decide which is the most preferable option for this environment. Finally, the simulation software that meets the design requirements will be chosen, the design of passive optical network will be made and the results justify that the network is more viable and can be implemented in a real time.

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Acknowledgements

The authors would like to thank Dr. A. Vetrivel, Senior Manager, BSNL, Chennai for his constant guiding and support. This work was carried out at BSNL Telecommunication Research Centre Laboratory, Chennai.

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Correspondence to S. Mary Praveena.

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Praveena, S.M., Vennila, I. & Vaishnavi, R. Design of Wireless Passive Optical Communication Network Based On Fusion of Fibre to the Home Architecture. Wireless Pers Commun 96, 3851–3871 (2017). https://doi.org/10.1007/s11277-017-4354-5

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