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StarRTT predicts Starlink RTT in real time without ID blind zones

Original title: StarRTT: An End-to-End Real-Time Framework for Blind Zone-Free RTT Prediction in Starlink LEO Satellite Networks

arXiv cs.AI / cs.LG / cs.CLby Jaeyong Lee ()1 min read1 · 1 read
AI summary · x-ai/grok-4.7Summaries by Vani AI

RT-LSTM reports 1.405 ms mean absolute error, cutting error versus LSTM, StarNet, and ASTM.

Starlink-style LEO networks hand over often, so RTT prediction needs continuous serving-satellite data. StarRTT identifies the serving satellite every second and feeds RT-LSTM historical RTT plus TLE-propagated future satellite and gateway features. In real-time back-testing, mean absolute error is 1.405 ms over 15 horizons and 15 time-slot indices, 4.3%, 11.6%, and 22.1% below LSTM, StarNet, and ASTM.

Key facts
  • The gain over LSTM is 12.5% at the scheduling instant.
  • Prior methods finish satellite identification only at the end of a cycle.
  • A historical LSTM and a future LSTM split past and TLE features.
  • Results are averaged over 15 prediction horizons and 15 reference slots.
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From the original article

1 min read at arxiv.org

Low Earth Orbit (LEO) satellite mega-constellations such as Starlink require frequent handovers due to high orbital velocities, resulting in substantial Round-Trip Time (RTT) fluctuations. Accurate RTT prediction can mitigate these fluctuations, yet it fundamentally relies on continuously updated serving- satellite information.

arXiv cs.AI / cs.LG / cs.CL

By Jaeyong Lee · arxiv.org

Read the full article at arXiv cs.AI / cs.LG / cs.CL

A short excerpt; the article and its images belong to the publisher. Summary, key facts and assessment above are AI-written from the article and can be wrong.