Modeling S-Band Communication Window Using Random Distributed Raman Laser Amplifier

This study simulates an open-cavity random distributed Raman amplifier for optimal performance across a 5 THz S-band spectrum (196.2–201.1 THz; 1490.76–1527.99 nm), evaluating its capacity via a 50-channel WDM grid with 100 GHz spacing. The primary Raman pump wavelength was tuned from 1318 to 1344 nm to identify the optimal point. A Fiber Bragg Grating (FBG), placed at the end of a 60 km single-mode fiber and upshifted 88 nm from the pump, enhances efficiency by transferring energy to the amplified signal, minimizing power variation. Results yield < 2 dB gain ripple across channels using raw Raman amplification without flattening filters with minor degradation from residual channels, confirming the DRA design’s viability for high-density S-band optical communication expansion.

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Publication Details

Journal
Electronics
Published
2025-09-04
DOI
https://doi.org/10.3390/electronics14173527
Primary Topic
Optical Network Technologies
Type
article
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article

Modeling S-Band Communication Window Using Random Distributed Raman Laser Amplifier

Paweł Rosa
Electronics
Optical Network Technologies
article

Modeling S-Band Communication Window Using Random Distributed Raman Laser Amplifier

Paweł Rosa
article en

Abstract

This study simulates an open-cavity random distributed Raman amplifier for optimal performance across a 5 THz S-band spectrum (196.2–201.1 THz; 1490.76–1527.99 nm), evaluating its capacity via a 50-channel WDM grid with 100 GHz spacing. The primary Raman pump wavelength was tuned from 1318 to 1344 nm to identify the optimal point. A Fiber Bragg Grating (FBG), placed at the end of a 60 km single-mode fiber and upshifted 88 nm from the pump, enhances efficiency by transferring energy to the amplified signal, minimizing power variation. Results yield < 2 dB gain ripple across channels using raw Raman amplification without flattening filters with minor degradation from residual channels, confirming the DRA design’s viability for high-density S-band optical communication expansion.

ElectronicsVol. 14(17)
National Institute of Telecommunications (PL)
Openalex Percentile: Top 77%
Optical Network Technologies
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