Supporting Multi-Purpose Satellite with TZ2C Onboard Processing Capabilities

The centralized control of satellites will hinder the efficient utilization of large-scale constellations, due to long time delay, large data volume transmission, high planning complexity, etc. As a distributed solution, orbital edge computing requires high-performance computation on spacecrafts to support multiple tasks such as planning, remote sensing detection, adaptive transmission, and other arbitrary applications installation if needed. In this paper, the latest-launched TZ2C satellite is described as one demonstration to provide support for various tasks based on its hardware acceleration, software deployment, as well the interactions with high-level task-related applications. As the "brain" of TZ2C infrastructure, the microsystem is elaborated including hardware and software design, together with the remote updating facilities. The in-orbit experiment design and preliminary results are also discussed to show the performance and flexibility in fulfilling various space tasks autonomously.

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Publication Details

Published
2025-03-17
DOI
https://doi.org/10.1109/percomworkshops65533.2025.00152
Primary Topic
Satellite Communication Systems
Type
article
Field-Weighted Citation Impact
0.00

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Supporting Multi-Purpose Satellite with TZ2C Onboard Processing Capabilities

Youmei Pan, Peng Wang, Jing Sun, Jinwen Li et al.
Satellite Communication Systems
article

Supporting Multi-Purpose Satellite with TZ2C Onboard Processing Capabilities

Youmei Pan, Peng Wang, Jing Sun, Jinwen Li, Ming Wang, Fanjiang Xu
article en

Abstract

The centralized control of satellites will hinder the efficient utilization of large-scale constellations, due to long time delay, large data volume transmission, high planning complexity, etc. As a distributed solution, orbital edge computing requires high-performance computation on spacecrafts to support multiple tasks such as planning, remote sensing detection, adaptive transmission, and other arbitrary applications installation if needed. In this paper, the latest-launched TZ2C satellite is described as one demonstration to provide support for various tasks based on its hardware acceleration, software deployment, as well the interactions with high-level task-related applications. As the "brain" of TZ2C infrastructure, the microsystem is elaborated including hardware and software design, together with the remote updating facilities. The in-orbit experiment design and preliminary results are also discussed to show the performance and flexibility in fulfilling various space tasks autonomously.

Chinese Academy of Sciences (CN), Institute of Software (CN), University of Chinese Academy of Sciences (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 81%
Satellite Communication Systems
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