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April 22, 2026Photonics0 citationsOpen Access

High-Capacity 16 × 10 Gbps Quad LP Modal MDM System Using an Integrated MMF-FSO Link Under Severe Climate Scenarios

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MKMeet KumariJMJyoteesh MalhotraSMSatyendra K. Mishra

Key Points

  • The aim is to design a high-capacity optical communication system using modal division multiplexing.
  • Developed a quad modal MDM system with an integrated multimode fiber and free-space optics link.
  • Evaluated system performance under various climate conditions including haze and heavy rain.
  • Measured insertion loss and received power over specified distances.
  • Achieved a 7.5 dB insertion loss over 100 m distances in free-space optics and fiber.
  • Recorded -7.62 dBm received power and maintained a -10 dB link loss over a faithful range of 3000 m.
  • Demonstrated high channel capacity and traffic rate with low complexity and improved spectral efficiency compared to existing systems.

Abstract

Mode division multiplexing (MDM) is an emerging optical communication solution for high-capacity wired–wireless applications. Due to the presence of modal crosstalk and link impairments in MDM, this work aims to design a system that provides low complexity, an improved Shannon Capacity limit, and high spectral efficiency. In this work, a quad modal MDM system using an integrated parabolic index multimode fiber and free-space optics (PIMMF-FSO) link is presented. Four linearly polarized (LP) modes, LP01, LP22, LP03, and LP13 based on a 16 × 10 Gbps MDM system offering different sixteen channels, are realized. Results show that the system can sustain a 7.5 dB insertion loss over 100 m FSO and a 100 m fiber range for different LP modes under the impact of clear air, moderate haze, heavy rain and wet snow climates with weak turbulence. A faithful fiber range of 3000 m can be obtained successfully in the proposed system with a −10 dB link loss, −7.62 dBm received power and 10 dB noise. Compared to existing designs, the proposed design offers optimum performance in terms of high channel capacity and a high traffic rate with low complexity and high spectral efficiency. Additionally, high received power, with acceptable noise, link loss, FSO misalignments and fiber nonlinearities, is successfully obtained.

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Cite This Study

Kumari et al. (2026) studied this question.

synapsesocial.com/papers/69e866ad6e0dea528ddeaf92https://doi.org/10.3390/photonics13040392
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