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Goal-Oriented Bundle Management and Flow Control for Deep-Space Communications via Reinforcement Learning

arXiv cs.AI / cs.LG / cs.CLby Sajjad Baghaeea ()1 min read1 · 1 read
AI summary · grok-4.7Summaries by Vani AI

Reinforcement learning manages deep-space bundle relays to cut excess age and improve flow fairness.

The paper models relay scheduling and dropping for the Bundle Protocol in a contact-driven deep-space network that forwards lunar and Martian updates through a shared buffer toward Earth. Freshness is measured by excess Age of Information, and a goal-oriented loss applies source-dependent penalties. Control is formulated as a constrained semi-Markov decision process and solved with masked Lagrangian PPO, which only permits bundles that can finish inside the remaining contact window. DTNSim simulations report improved age-based utility and inter-flow fairness versus FIFO and other baselines.

Key facts
  • Relay control is cast as a constrained semi-Markov decision process.
  • Masked Lagrangian PPO schedules, drops, and shapes flows.
  • Excess Age of Information captures mission-weighted freshness.
  • DTNSim reports better utility and fairness than FIFO.
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From the original article

1 min read at arxiv.org

Deep-space communications operate under intermittent connectivity, long propagation delays, and relay storage constraints. In such networks, the Bundle Protocol enables store-carry-forward communication, requiring relay nodes to manage limited storage and scarce contact opportunities.

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

By Sajjad Baghaeea · arxiv.org

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

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