Receptor digital de comunicaciones ópticas de alta capacidad / High capacity optical communications digital receiver

Moreno Morrone, Juan L. (2019) Receptor digital de comunicaciones ópticas de alta capacidad / High capacity optical communications digital receiver. Master in Engineering, Universidad Nacional de Cuyo, Instituto Balseiro.

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Abstract in Spanish

Durante los últimos años hubo un crecimiento en la demanda de tasas de transmisi ón por parte de los usuarios por el surgimiento de aplicaciones de uso masivo como Internet, servicios de video de alta denición, comunicación entre data centers, juegos en línea y cómputo en la nube. Esto impone nuevos desafíos a las comunicaciones ópticas long-haul para satisfacer las demandas de los consumidores. En este trabajo se estudió el funcionamiento y desarrolló el DSP de un receptor de comunicaciones ópticas de alta capacidad, programado en un lenguaje de alto nivel, como MATLAB, y para operar oine. A su vez, se desarrolló un compensador de la automodulación de fase y la dispersión cromática, basado en el método de Digital Backpropagation (DBP), como reemplazo a un bloque que solo compensa la dispersión cromática (EDC). Finalmente se presentan resultados obtenidos sobre datos medidos a 84 Gbaud para una modulación DP-QPSK en distancias hasta 2880 km, obtenidos por una colaboración del Prof. Pablo A. Costanzo Caso del Instituto Balseiro y del LIAT, y el Laboratorio Photonics Systems Group del Prof. David V. Plant de la universidad McGill (Canadá). Se obtienen mejoras potenciales de hasta 820 km para una BER de 10􀀀3 al utilizar DBP respecto a utilizar EDC.

Abstract in English

During the past decades the demand for greater transmission rates grew steadily, mainly due to the arrival of massive use applications such as Internet, high-denition streaming video, data center communications, online gaming, and cloud computing. This imposes new challenges on long-haul optical communications to satisfy the demands of the consumers. In this work, the study of the operation and the development of a high capacity optical communications receiver was performed. The receiver was programmed in a high-level programming language, such as MATLAB, and intended to be operated in an oine manner. Also, a Self-Phase Modulation and Chromatic Dispersion compensator based on Digital Backpropagation was developed, as a replacement of a block that only compensates the Chromatic Dispersion (EDC). Finally, results were presented for DP-QPSK measurements at 84 Gbaud and distances up to 2880 km (obtained thanks to a collaboration between Prof. Pablo A. Costanzo Caso of the Instituto Balseiro and LIAT, and the Photonics Systems Group lead by Prof. David V. Plant at McGill University, Canada), showing an improvement of up to 820 km for a BER of 10􀀀3 when using DBP instead of EDC.

Item Type:Thesis (Master in Engineering)
Keywords:Optical fibers; Fibras ópticas; [High capacity optical communication; Comunicaciones ópticas de alta capacidad; Signal processing; Procesamiento de señales; Nonlinear processing; Procesamiento no lineal; Digital communications; Comunicación Digital; Digital backpropagation method; Métodos de digital backprogation]
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Subjects:Ingeniería en telecomunicaciones > Comunicaciones ópticas
Divisions:Gcia. de área de Investigación y aplicaciones no nucleares > Laboratorio de investigación aplicada en Telecomunicaciones
ID Code:848
Deposited By:Tamara Cárcamo
Deposited On:31 Mar 2021 09:48
Last Modified:12 Apr 2021 12:14

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