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This research addresses a critical gap in industrial robotics by developing an outer-loop control strategy that ensures safety and precision despite unmodifiable inner-loop controllers. By integrating disturbance rejection with robust control barrier functions, the study provides formal stability proofs for systems facing significant dynamic uncertainty without requiring hardware changes to proprietary actuators. The approach offers a practical pathway for deploying safer robotic manipulators in commercial environments where access to low-level torque controls is restricted.
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Unified Disturbance Aware Safe Kinematic Control for Closed-Architecture Robots

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2512.05292v3 Announce Type: replace Abstract: In commercial robotic systems, it is common to encounter a closed inner-loop torque controller that is not user-modifiable. However, the outer-loop controller, which sends kinematic commands such as position or velocity for the inner-loop controller to track, is typically exposed to users. In this work, we focus on the development of an easily integrated add-on at the outer-loop layer by combining disturbance rejection control and robust control barrier function for high-performance tracking and safe control of the whole dynamic system of an industrial manipulator. This is particularly beneficial when 1) the inner-loop controller is imperfect, unmodifiable, and uncertain; and 2) the dynamic model exhibits significant uncertainty. Stability analysis, formal safety guarantee proof, and hardware experiments with a PUMA robotic manipulator are presented. Our solution demonstrates superior performance in terms of simplicity of implementation, robustness, tracking precision, and safety compared to the state of the art. A demonstration video is available at https://youtu.be/e0palGVU_50.

Abstract:In commercial robotic systems, it is common to encounter a closed inner-loop torque controller that is not user-modifiable. However, the outer-loop controller, which sends kinematic commands such as position or velocity for the inner-loop controller to track, is typically exposed to users. In this work, we focus on the development of an easily integrated add-on at the outer-loop layer by combining disturbance rejection control and robust control barrier function for high-performance tracking and safe control of the whole dynamic system of an industrial manipulator. This is particularly beneficial when 1) the inner-loop controller is imperfect, unmodifiable, and uncertain; and 2) the dynamic model exhibits significant uncertainty. Stability analysis, formal safety guarantee proof, and hardware experiments with a PUMA robotic manipulator are presented. Our solution demonstrates superior performance in terms of simplicity of implementation, robustness, tracking precision, and safety compared to the state of the art. A demonstration video is available at this https URL.

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

arXiv:2512.05292 [cs.RO]

(or arXiv:2512.05292v3 [cs.RO] for this version)

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