Scalable Data Transmission Framework for Earth Observation Satellites with Channel Adaptation

The immense volume of data generated by Earth observation (EO) satellites presents significant challenges in transmitting it to Earth over rate-limited satellite-to-ground communication links. This paper presents an efficient down-link framework for multi-spectral satellite images, leveraging adaptive transmission techniques based on pixel importance and link capacity. By integrating semantic communication principles, the framework prioritizes critical information, such as changed multi-spectral pixels, to optimize data transmission. The process involves preprocessing, assessing pixel importance to encode only significant changes, and dynamically adjusting transmissions to match channel conditions. Experimental results on the real dataset and simulated link demonstrate that the proposed approach ensures high-quality data delivery while significantly reducing number of transmitted data, making it highly suitable for satellite-based EO applications.

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Publication Details

Published
2025-05-26
DOI
https://doi.org/10.1109/icmlcn64995.2025.11140530
Primary Topic
Satellite Communication Systems
Type
article
Field-Weighted Citation Impact
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article

Scalable Data Transmission Framework for Earth Observation Satellites with Channel Adaptation

Shashi Raj Pandey, Van-Phuc Bui, Israel Leyva‐Mayorga, Petar Popovski
Satellite Communication Systems
article

Scalable Data Transmission Framework for Earth Observation Satellites with Channel Adaptation

Shashi Raj Pandey, Van-Phuc Bui, Israel Leyva‐Mayorga, Petar Popovski
article en

Abstract

The immense volume of data generated by Earth observation (EO) satellites presents significant challenges in transmitting it to Earth over rate-limited satellite-to-ground communication links. This paper presents an efficient down-link framework for multi-spectral satellite images, leveraging adaptive transmission techniques based on pixel importance and link capacity. By integrating semantic communication principles, the framework prioritizes critical information, such as changed multi-spectral pixels, to optimize data transmission. The process involves preprocessing, assessing pixel importance to encode only significant changes, and dynamically adjusting transmissions to match channel conditions. Experimental results on the real dataset and simulated link demonstrate that the proposed approach ensures high-quality data delivery while significantly reducing number of transmitted data, making it highly suitable for satellite-based EO applications.

Aalborg University (DK)
Openalex Percentile: Top 68%
Satellite Communication Systems
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