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TARC introduces a reinforcement learning framework that dynamically adjusts control frequencies in robotic systems, significantly reducing computational waste while maintaining high-performance stability. By optimizing the timing of inference and actuation, this method addresses the inherent trade-off between efficiency and responsiveness in discrete-time controllers without sacrificing robustness. The approach demonstrates substantial gains in hardware settings ranging from RC cars to quadrupeds, proving that adaptive control rates can outperform traditional fixed-frequency strategies.
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TARC: Time-Adaptive Robotic Control

arXiv2 min read

arXiv:2510.23176v2 Announce Type: replace Abstract: Most robotic systems rely on fixed-frequency discrete-time controllers, creating a trade-off between the efficiency of low-frequency control and the responsiveness of high-frequency feedback. As a result, systems typically default to high control rates for robustness, at the cost of wasted inference and unnecessary actuation. Addressing this, we introduce Time-Adaptive Robotic Control (TARC), a reinforcement learning framework in which the policy jointly predicts a control action and its duration of application. TARC learns temporally extended actions by optimizing task performance under soft or hard constraints on the number of control switches, enabling adaptive modulation of control rates. We evaluate TARC on two robotic hardware platforms: a high-speed RC car and the Unitree Go1 quadruped, and on a vision-language action model in simulation, where each query incurs a costly transformer forward pass. Across all settings, TARC matches the performance of high-frequency discrete-time controllers while operating at less than half their control frequency. Unlike fixed-rate controllers, TARC adapts its control frequency online, allocating high-frequency feedback only when required.

Abstract:Most robotic systems rely on fixed-frequency discrete-time controllers, creating a trade-off between the efficiency of low-frequency control and the responsiveness of high-frequency feedback. As a result, systems typically default to high control rates for robustness, at the cost of wasted inference and unnecessary actuation. Addressing this, we introduce Time-Adaptive Robotic Control (TARC), a reinforcement learning framework in which the policy jointly predicts a control action and its duration of application. TARC learns temporally extended actions by optimizing task performance under soft or hard constraints on the number of control switches, enabling adaptive modulation of control rates. We evaluate TARC on two robotic hardware platforms: a high-speed RC car and the Unitree Go1 quadruped, and on a vision-language action model in simulation, where each query incurs a costly transformer forward pass. Across all settings, TARC matches the performance of high-frequency discrete-time controllers while operating at less than half their control frequency. Unlike fixed-rate controllers, TARC adapts its control frequency online, allocating high-frequency feedback only when required.

Accepted at the 10th Conference on Robot Learning (CoRL 2026). Project page available at this https URL

Robotics (cs.RO); Machine Learning (cs.LG)

arXiv:2510.23176 [cs.RO]

(or arXiv:2510.23176v2 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2510.23176 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 276 words

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