arXiv:2603.20317cs.CVcs.DC2026-03中稿 · IEEE Space, Aerosp…

提出按任务类型决定数据上天的框架,用语义压缩大幅减少太空传输数据量。

Which Workloads Belong in Orbit? A Workload-First Framework for Orbital Data Centers Using Semantic Abstraction

论文配图:Which Workloads Belong in Orbit? A Workload-First Framework for Orbital Data Centers Using Semantic Abstraction
图 1 · 摘自论文原文
  • 以任务为中心,通过语义抽象判断哪些工作负载适合上太空。
  • 卫星影像处理实现99.7%-99.99%的数据压缩率,3D重建减少99.49%体积。
  • 适合关注太空计算部署、低带宽场景下数据压缩的研究者与工程师。

随着发射成本下降和数据密集型人工智能工作负载增长,空间计算正变得可行。本文提出一种以工作负载为核心的框架,用于判断哪些任务应部署在轨道而非地面云上,并建立与轨道数据中心成熟度相匹配的分阶段采纳模型。框架基于在轨语义缩减原型验证:基于哨兵-2遥感影像(西雅图和班加罗尔)的地球观测流水线,将原始图像转换为紧凑的语义产物,实现99.7%-99.99%的载荷压缩;多通道立体重建原型将约306MB的三维表示压缩至约1.57MB(99.49%压缩率)。结果支持以工作负载为导向的视角——语义抽象能力比单纯算力规模更能决定早期任务的适航性。

原文摘要 · Abstract (English)

Space-based compute is becoming plausible as launch costs fall and data-intensive AI workloads grow. This paper proposes a workload-centric framework for deciding which tasks belong in orbit versus terrestrial cloud, along with a phased adoption model tied to orbital data center maturity. We ground the framework with in-orbit semantic-reduction prototypes. An Earth-observation pipeline on Sentinel-2 imagery from Seattle and Bengaluru (formerly Bangalore) achieves 99.7-99.99% payload reduction by converting raw imagery to compact semantic artifacts. A multi-pass stereo reconstruction prototype reduces ~306 MB to ~1.57 MB of derived 3D representations (99.49% reduction). These results support a workload-first view in which semantic abstraction, not raw compute scale, drives early workload suitability.

太空计算语义压缩遥感处理数据中心

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