8 × 200 Gbps Hybrid PON and Digital Filter Multiple Access Incorporating Fiber‐FSO Link Impairments in a Wheel Architecture

ABSTRACT Digital filter multiple access passive optical network (DFMA‐PON) is adopted in recent years as it offers the high bandwidth, elastic network slicing, low latency, fixed data rate, and massive end‐user comparability. To overcome limited system capacity, low transmission rate and fiber fault in existing DFMA‐PONs, a wheel architecture based full‐duplex 8 × 200 Gbps DFMA‐PON integrated system using fiber and free space optics (FSO) link is presented in this paper. Results depict that maximum FSO channel range can be attained up to 2600 m together with 50 km fiber range under weak‐to‐strong turbulent, haze, rain, fog, and snow conditions. Besides, faithful fiber reach of 200 km can be obtained with fixed 100 m FSO distance at receiver sensitivity of −17.2 dBm and 1.5 dB power penalty. System can support 230 numbers end units at high optical signal to noise ratio of 29–88 dB with 50–200 Gbps throughput, together with high split ratio of 256 to −3.2 dB high gain as well as 2 dB noise figure. In addition, the comparative analysis with the previous work reveals that the proposed architecture offers optimum results than existing PONs. This system helps to enhance the disaster resilience with high network security, reliability, and survivability of 5G based networks.

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Publication Details

Journal
International Journal of Communication Systems
Published
2025-02-10
DOI
https://doi.org/10.1002/dac.70018
Citations
6
Primary Topic
Advanced Photonic Communication Systems
Type
article
Field-Weighted Citation Impact
4.38
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article

8 × 200 Gbps Hybrid PON and Digital Filter Multiple Access Incorporating Fiber‐FSO Link Impairments in a Wheel Architecture

Vivek Arya, Meet Kumari
6 citations
International Journal of Communication Systems
Advanced Photonic Communication Systems
4.38
article

8 × 200 Gbps Hybrid PON and Digital Filter Multiple Access Incorporating Fiber‐FSO Link Impairments in a Wheel Architecture

Vivek Arya, Meet Kumari
article en
6 citations

Abstract

ABSTRACT Digital filter multiple access passive optical network (DFMA‐PON) is adopted in recent years as it offers the high bandwidth, elastic network slicing, low latency, fixed data rate, and massive end‐user comparability. To overcome limited system capacity, low transmission rate and fiber fault in existing DFMA‐PONs, a wheel architecture based full‐duplex 8 × 200 Gbps DFMA‐PON integrated system using fiber and free space optics (FSO) link is presented in this paper. Results depict that maximum FSO channel range can be attained up to 2600 m together with 50 km fiber range under weak‐to‐strong turbulent, haze, rain, fog, and snow conditions. Besides, faithful fiber reach of 200 km can be obtained with fixed 100 m FSO distance at receiver sensitivity of −17.2 dBm and 1.5 dB power penalty. System can support 230 numbers end units at high optical signal to noise ratio of 29–88 dB with 50–200 Gbps throughput, together with high split ratio of 256 to −3.2 dB high gain as well as 2 dB noise figure. In addition, the comparative analysis with the previous work reveals that the proposed architecture offers optimum results than existing PONs. This system helps to enhance the disaster resilience with high network security, reliability, and survivability of 5G based networks.

International Journal of Communication SystemsVol. 38(4)
Chandigarh University (IN)
Openalex Percentile: Top 6%
Advanced Photonic Communication Systems
4.38
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