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This research proposes a novel supervisory framework for reinforcement learning agents operating on heavy-duty robots, ensuring safety and task completion through reversible state management and debt accounting. By mathematically guaranteeing finite switching and goal entry even during recovery interventions, the method addresses critical stability challenges in deploying RL on physical systems with high inertia. The approach validates these theoretical bounds through extensive simulations and real-world trials on a 6,000 kg robot across varied terrains.
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Reversible Simplex Supervision with Post-Action Debt Accounting for Goal-Reaching RL

arXiv2 min read

arXiv:2601.19499v3 Announce Type: replace Abstract: Deploying reinforcement learning (RL) on multi-tonne robots calls for supervisory mechanisms that address both operational safety and progress toward task completion. However, repeated switching need not preserve task progress when a learned action increases storage before recovery takes control. We introduce reversible Simplex supervision with post-action debt accounting for a frozen finite-state policy and robust-adaptive recovery. Under exact sampled-state information and stated model and certificate conditions, we prove that recovery repayment exceeding a uniform triggering-edge debt bound guarantees finite switching and finite-sample goal entry. We formulate reachability-based certificate constructions for establishing these sufficient conditions. In 20 matched simulations, goal-entry counts are 20 with debt gating and 18 without it; the two remaining runs terminate under the supervisor's admissibility stopping rule. On an experimental 6000 kg robot, 24 asphalt and soft-terrain trials evaluate 50 ms supervision above a 1 kHz actuator stack; all eight triggered recoveries complete debt-gated re-entry. The experiments demonstrate the supervisory mechanism in the tested trials.

Abstract:Deploying reinforcement learning (RL) on multi-tonne robots calls for supervisory mechanisms that address both operational safety and progress toward task completion. However, repeated switching need not preserve task progress when a learned action increases storage before recovery takes control. We introduce reversible Simplex supervision with post-action debt accounting for a frozen finite-state policy and robust-adaptive recovery. Under exact sampled-state information and stated model and certificate conditions, we prove that recovery repayment exceeding a uniform triggering-edge debt bound guarantees finite switching and finite-sample goal entry. We formulate reachability-based certificate constructions for establishing these sufficient conditions. In 20 matched simulations, goal-entry counts are 20 with debt gating and 18 without it; the two remaining runs terminate under the supervisor's admissibility stopping rule. On an experimental 6000 kg robot, 24 asphalt and soft-terrain trials evaluate 50 ms supervision above a 1 kHz actuator stack; all eight triggered recoveries complete debt-gated re-entry. The experiments demonstrate the supervisory mechanism in the tested trials.

Robotics (cs.RO)

arXiv:2601.19499 [cs.RO]

(or arXiv:2601.19499v3 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2601.19499 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 249 words

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