Advances in Adaptive Filtering for Coherent Dual-Polarization Optical Communication Systems and Their Integration in Dynamic Optical Networks

Abstract

A thorough examination of current developments in adaptive filtering for coherent dual-polarization optical communication systems is provided in this work. The emphasis is on high-capacity networks made possible by dual-polarization, coherent detection, variable bit-rate transceivers. The review explores the effectiveness of different adaptive algorithms in coherent receivers, the importance of dual polarization, and the function of adaptive filters in reducing channel impairments. The research also sheds light on the trade-offs and difficulties related to flexible bitrate optical transceivers. The paper comprises an extensive assessment of dynamic optical networks, categorized by network granularity and generation, in addition to the study of adaptive filtering. A comprehensive understanding of the developments in dynamic optical networking technologies is provided by the discussion of the evolution and traits of each generation. The poll also covers optical access networks, emphasizing the acceptance and advantages of optical access protocols as IEEE EPON and ITU-T GPON. The study also examines how digital filtering might be used to manage transmission constraints, highlighting the significance of segmenting digital filtering into distinct blocks. An overview of the types and applications of optical filters utilized in optical communication systems is included in the discussion. The study wraps up with a review of the literature that summarizes current research on optical communication systems, such as studies on adaptive algorithms' convergence properties, coherent dual-polarization receivers, and machine learning's use in optical fiber communication. The contributions of this paper include a thorough analysis of adaptive algorithm performance, a comparative study of dynamic optical networks, and a comprehensive overview of recent research in optical communication systems.

Country : Iraq

1 Huda A. Abdulhadi2 Dia M. Ali3 Ehab Al-Rawachy

  1. Communication Engineering Department, College of Electronics Engineering, University of Nineveh, Mosul-Iraq
  2. Communication Engineering Department, College of Electronics Engineering, University of Nineveh, Mosul-Iraq
  3. Communication Engineering Department, College of Electronics Engineering, University of Nineveh, Mosul-Iraq

IRJIET, Volume 8, Issue 8, August 2024 pp. 118-127

doi.org/10.47001/IRJIET/2024.808014

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