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This paper introduces Staggered Integral Online Conformal Prediction (SI-OCP), a novel algorithm designed to quantify model uncertainty in adaptive systems without relying on conservative worst-case bounds or state derivative measurements. By integrating an integral score function, the method achieves long-run safety guarantees when combined with robust tube model predictive control, validated through simulations of deep neural network-driven quadcopter dynamics. The work represents a significant advancement in applying data-driven conformal prediction to safety-critical control problems involving complex learning parameterizations.
Sources coveringarXiv, NVIDIA
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Staggered Integral Online Conformal Prediction for Safe Dynamics Adaptation with Multi-Step Coverage Guarantees

arXiv2 min read

arXiv:2604.06058v2 Announce Type: replace-cross Abstract: Safety-critical control of uncertain, adaptive systems often relies on conservative, worst-case uncertainty bounds that limit closed-loop performance. Online conformal prediction is a powerful data-driven method for quantifying uncertainty when truth values of predicted outputs are revealed online; however, for systems that adapt the dynamics without measurements of the state derivatives, standard online conformal prediction is insufficient to quantify the model uncertainty. We propose Staggered Integral Online Conformal Prediction (SI-OCP), an algorithm utilizing an integral score function to quantify the lumped effect of disturbance and learning error. This approach provides long-run coverage guarantees, resulting in long-run safety when synthesized with safety-critical controllers, including robust tube model predictive control. Finally, we validate the proposed approach through a numerical simulation of an all-layer deep neural network (DNN) adaptive quadcopter using robust tube (MPC), highlighting the applicability of our method to complex learning parameterizations and control strategies.

Abstract:Safety-critical control of uncertain, adaptive systems often relies on conservative, worst-case uncertainty bounds that limit closed-loop performance. Online conformal prediction is a powerful data-driven method for quantifying uncertainty when truth values of predicted outputs are revealed online; however, for systems that adapt the dynamics without measurements of the state derivatives, standard online conformal prediction is insufficient to quantify the model uncertainty. We propose Staggered Integral Online Conformal Prediction (SI-OCP), an algorithm utilizing an integral score function to quantify the lumped effect of disturbance and learning error. This approach provides long-run coverage guarantees, resulting in long-run safety when synthesized with safety-critical controllers, including robust tube model predictive control. Finally, we validate the proposed approach through a numerical simulation of an all-layer deep neural network (DNN) adaptive quadcopter using robust tube (MPC), highlighting the applicability of our method to complex learning parameterizations and control strategies.

Systems and Control (eess.SY); Robotics (cs.RO)

arXiv:2604.06058 [eess.SY]

(or arXiv:2604.06058v2 [eess.SY] for this version)

https://doi.org/10.48550/arXiv.2604.06058 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 238 words

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