Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System
This paper presents a study of a 32×10 Gbps Radio over Fiber and Wavelength Division Multiplexing (RoF-WDM) full-duplex system that uses Phase Modulators and a Dual-Port Mach-Zehnder Modulator (PMs-DPMZM) for bidirectional data transfer. The system employs Millimeter-Wave (MMW) signaling over optica...
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Language: | English |
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Sciendo
2024-02-01
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Online Access: | https://doi.org/10.2478/ttj-2024-0007 |
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author | Chebra Abdennour Fellag Borsali Ahmed Riad Rouissat Mehdi |
author_facet | Chebra Abdennour Fellag Borsali Ahmed Riad Rouissat Mehdi |
author_sort | Chebra Abdennour Fellag |
collection | DOAJ |
description | This paper presents a study of a 32×10 Gbps Radio over Fiber and Wavelength Division Multiplexing (RoF-WDM) full-duplex system that uses Phase Modulators and a Dual-Port Mach-Zehnder Modulator (PMs-DPMZM) for bidirectional data transfer. The system employs Millimeter-Wave (MMW) signaling over optical fiber and focuses on selecting a technology that provides high transmission capacity per wavelength, improved spectral efficiency, and resistance against optical transmission impairments. The proposed method was validated using simulation results to confirm the efficiency of the proposed system in generating a 40 GHz signal and efficiently detecting and modulating the RF signals. The results demonstrate that the system exhibits strong resistance against dispersion, non-linear effects, and noise, delivering satisfactory performance for distances of up to 220 km. By analyzing the input power, the paper establishes a relationship between input power and signal quality, revealing that an optimal power of 0 dBm leads to an improved Quality Factor (QF) and reduced transmission errors. Furthermore, the evaluation of received optical power indicates the power level required to maintain an acceptable error rate, approximately -20.9690 dBm for downstream data transfer and -20.7245 dBm for upstream data transfer at the BER limit. The simulation performance also demonstrates the transmission efficiency achieved through a high Polarization Mode Dispersion (PMD) coefficient of up to 0.8. The analytical calculations conducted in this work provide valuable insights for optimizing and enhancing the performance of RoF-WDM networks. |
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format | Article |
id | doaj.art-b6e9b477513a4ec28a2a68b393d196e1 |
institution | Directory Open Access Journal |
issn | 1407-6179 |
language | English |
last_indexed | 2024-03-07T23:48:28Z |
publishDate | 2024-02-01 |
publisher | Sciendo |
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series | Transport and Telecommunication |
spelling | doaj.art-b6e9b477513a4ec28a2a68b393d196e12024-02-19T09:04:02ZengSciendoTransport and Telecommunication1407-61792024-02-01251667610.2478/ttj-2024-0007Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM SystemChebra Abdennour Fellag0Borsali Ahmed Riad1Rouissat Mehdi21STIC Laboratory, Department of Telecommunication, Faculty of Technology University of Abou Bekr Belkaid, Tlemcen, Algeria2STIC Laboratory, Department of Telecommunication, Faculty of Technology University of Abou Bekr Belkaid, Tlemcen, Algeria3University Center of Nour Bachir El Bayadh, El Bayadh, AlgeriaThis paper presents a study of a 32×10 Gbps Radio over Fiber and Wavelength Division Multiplexing (RoF-WDM) full-duplex system that uses Phase Modulators and a Dual-Port Mach-Zehnder Modulator (PMs-DPMZM) for bidirectional data transfer. The system employs Millimeter-Wave (MMW) signaling over optical fiber and focuses on selecting a technology that provides high transmission capacity per wavelength, improved spectral efficiency, and resistance against optical transmission impairments. The proposed method was validated using simulation results to confirm the efficiency of the proposed system in generating a 40 GHz signal and efficiently detecting and modulating the RF signals. The results demonstrate that the system exhibits strong resistance against dispersion, non-linear effects, and noise, delivering satisfactory performance for distances of up to 220 km. By analyzing the input power, the paper establishes a relationship between input power and signal quality, revealing that an optimal power of 0 dBm leads to an improved Quality Factor (QF) and reduced transmission errors. Furthermore, the evaluation of received optical power indicates the power level required to maintain an acceptable error rate, approximately -20.9690 dBm for downstream data transfer and -20.7245 dBm for upstream data transfer at the BER limit. The simulation performance also demonstrates the transmission efficiency achieved through a high Polarization Mode Dispersion (PMD) coefficient of up to 0.8. The analytical calculations conducted in this work provide valuable insights for optimizing and enhancing the performance of RoF-WDM networks.https://doi.org/10.2478/ttj-2024-0007radio over fiberwavelength division multiplexingmillimeter-wavephase modulatordual-port mach-zehnder modulator |
spellingShingle | Chebra Abdennour Fellag Borsali Ahmed Riad Rouissat Mehdi Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System Transport and Telecommunication radio over fiber wavelength division multiplexing millimeter-wave phase modulator dual-port mach-zehnder modulator |
title | Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System |
title_full | Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System |
title_fullStr | Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System |
title_full_unstemmed | Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System |
title_short | Photonic MMW Generation Using PM-DPMZM for Full Duplex 32×10 Gbps RoF-WDM System |
title_sort | photonic mmw generation using pm dpmzm for full duplex 32 10 gbps rof wdm system |
topic | radio over fiber wavelength division multiplexing millimeter-wave phase modulator dual-port mach-zehnder modulator |
url | https://doi.org/10.2478/ttj-2024-0007 |
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