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Certifiable Safe Model-Based Reinforcement Learning with Control-Affine Dynamics Approximation

Summary

A safe model-based reinforcement learning framework is proposed that learns control-affine dynamics and uses adaptive conformal prediction for uncertainty quantification, combined with control barrier functions for certifiable safety. Simulations on cartpole and 3D quadrotor demonstrate effectiveness.

SourcearXiv RoboticsAuthor: Hao Zhou, Yanze Zhang, Cameron Reid, Wenhao Luo
Certifiable Safe Model-Based Reinforcement Learning with Control-Affine Dynamics Approximation
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[Submitted on 17 Jul 2026]

Title:Certifiable Safe Model-Based Reinforcement Learning with Control-Affine Dynamics Approximation

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Abstract:Safe model-based reinforcement learning (RL) often bridges control-theoretic analysis and RL for robots to safely explore (partially) unknown system dynamics while deriving control actions for task efficiency. The control performance and safety assurance typically rely on prior knowledge of partially modeled nominal system dynamics and the data-driven models that compensate for residual model uncertainties. However, existing methods often overlook the structure of residual model uncertainties (e.g., components affine in control), which could lead to overly conservative robot behaviors or invalid safety guarantees under the safe learning-based controllers. This paper proposes a safe reinforcement learning framework that learns control-affine dynamics with a certifiable data-driven safe policy using control barrier functions (CBF). Specifically, we first use Control-Affine Random Fourier Features (ARFF) to model robot dynamics in a control-affine form, which offers computational efficiency that scales with dataset size and reduces potential model bias for model-based reinforcement learning. Then, a model-free, efficient uncertainty quantification method using adaptive conformal prediction (ACP) is applied to quantify the uncertainty in the safety constraint arising from the learned control-affine dynamics. This allows for data-driven safety assurance amenable to principled and efficient controller synthesis with CBF. Simulation results on the cartpole and the 3D quadrotor platforms demonstrate the effectiveness of the proposed framework.

Comments: 8 pages, accepted to IROS 2026

Subjects:

Robotics (cs.RO)

Cite as: arXiv:2607.16501 [cs.RO]

(or arXiv:2607.16501v1 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2607.16501

arXiv-issued DOI via DataCite

Submission history

From: Hao Zhou [view email] [v1] Fri, 17 Jul 2026 20:45:28 UTC (2,617 KB)

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Key points

  • Learns control-affine dynamics using Control-Affine Random Fourier Features (ARFF) for computational efficiency.
  • Applies adaptive conformal prediction to quantify uncertainty in safety constraints from learned dynamics.
  • Validated on cartpole and 3D quadrotor platforms.

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