Modeling the physical layer of air-to-space optical communication networks using the modified multi-scale method

To support the development of free-space-optical (FSO) communication technologies, an end-to-end physical layer model of a satellite communication service was developed. This service involves physical processes spanning multiple time scales: hours (relative platform dynamics), minutes (link selection, atmospheric attenuation), milliseconds (atmospheric turbulence, platform disturbances), and nanoseconds (photon and bit transportation). The modified multi-scale method (MMM) was used to combine the physics of these processes and to model an end-to-end global FSO communication service between an airborne platform and a satellite constellation. The method provides a better understanding of physical interdependencies, allows performance analysis on multiple time scales, and enables valuable insight into where to optimize such a service. The results show realistic performance metrics when compared to other smaller-scale models and demonstrations. The MMM can be used as a mission performance indicator of an end-to-end satellite communication service.

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Publication Details

Journal
Journal of Optical Communications and Networking
Published
2025-01-16
DOI
https://doi.org/10.1364/jocn.551182
Citations
4
Primary Topic
Advanced Optical Network Technologies
Type
article
Field-Weighted Citation Impact
2.92
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article

Modeling the physical layer of air-to-space optical communication networks using the modified multi-scale method

Remco den Breeje, Rudolf Saathof, Wieger Helsdingen
4 citations
Journal of Optical Communications and Networking
Advanced Optical Network Technologies
2.92
article

Modeling the physical layer of air-to-space optical communication networks using the modified multi-scale method

Remco den Breeje, Rudolf Saathof, Wieger Helsdingen
article en
4 citations

Abstract

To support the development of free-space-optical (FSO) communication technologies, an end-to-end physical layer model of a satellite communication service was developed. This service involves physical processes spanning multiple time scales: hours (relative platform dynamics), minutes (link selection, atmospheric attenuation), milliseconds (atmospheric turbulence, platform disturbances), and nanoseconds (photon and bit transportation). The modified multi-scale method (MMM) was used to combine the physics of these processes and to model an end-to-end global FSO communication service between an airborne platform and a satellite constellation. The method provides a better understanding of physical interdependencies, allows performance analysis on multiple time scales, and enables valuable insight into where to optimize such a service. The results show realistic performance metrics when compared to other smaller-scale models and demonstrations. The MMM can be used as a mission performance indicator of an end-to-end satellite communication service.

Journal of Optical Communications and NetworkingVol. 17(3)
Airbus (Netherlands) (NL)
Openalex Percentile: Top 10%
Advanced Optical Network Technologies
2.92
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Modeling the physical layer of air-to-space optical communication networks using the modified multi-scale method — Remco den Breeje, Rudolf Saathof, et al. · Journal of Optical Communications and Networking (2025) | TGRS Research Map | TGRS