aiqbench analysis
This study presents a hybrid robotics architecture where a quadruped robot offloads the heavy sensing and localization computation to enable autonomous flight for extremely lightweight micro-UAVs. By utilizing an actively controlled camera arm to track fiducial markers, the system achieves centimeter-level pose accuracy that allows the drone to operate without its own onboard computing stack. The core innovation lies in shifting the AI-driven perception burden from the aerial platform to a ground-based robot, fundamentally changing how small-scale autonomous systems are architected for confined environments.
Towards Quadruped-Provided Localization and Active Tracking for Micro-UAVs
arXiv:2610.06215v1 Announce Type: new Abstract: Micro unmanned aerial vehicles (micro-UAVs) are small enough to reach confined spaces that larger robots cannot access, but too small to carry the sensing and computing power required for autonomous flight. We move the localization stack entirely off the aerial platform onto a quadruped robot with a 7-degree-of-freedom (DOF) arm, which supplies the micro-UAV (27 g bare, 42 g with fiducial markers) its full 6-DOF pose. A camera at the arm's end-effector detects AprilTag fiducial markers on the drone and composes that observation with the quadruped's own self-localization to place the drone in a shared map frame, so the ground robot localizes its partner, rather than only tracking it relative to the camera. The arm acts as an actively-controlled observer, repositioning to keep the drone in view as both robots move; the drone carries only an inertial measurement unit and fuses the external pose to fly commanded setpoints. In lab flights the external pose is accurate to 12-16 mm, enough to fly the drone autonomously within 2-5 cm of motion-capture-fed control. Having the quadruped actively follow the drone reduces the tracking error from 11.0 cm to 6.9 cm by holding the camera in the close range, where the markers are most accurate.
Abstract:Micro unmanned aerial vehicles (micro-UAVs) are small enough to reach confined spaces that larger robots cannot access, but too small to carry the sensing and computing power required for autonomous flight. We move the localization stack entirely off the aerial platform onto a quadruped robot with a 7-degree-of-freedom (DOF) arm, which supplies the micro-UAV (27 g bare, 42 g with fiducial markers) its full 6-DOF pose. A camera at the arm's end-effector detects AprilTag fiducial markers on the drone and composes that observation with the quadruped's own self-localization to place the drone in a shared map frame, so the ground robot localizes its partner, rather than only tracking it relative to the camera. The arm acts as an actively-controlled observer, repositioning to keep the drone in view as both robots move; the drone carries only an inertial measurement unit and fuses the external pose to fly commanded setpoints. In lab flights the external pose is accurate to 12-16 mm, enough to fly the drone autonomously within 2-5 cm of motion-capture-fed control. Having the quadruped actively follow the drone reduces the tracking error from 11.0 cm to 6.9 cm by holding the camera in the close range, where the markers are most accurate.
12 pages, 5 figures. Submitted version (before peer review) of a paper accepted at CLAWAR 2026, Cranfield, UK, 14 to 16 September 2026. The published version, titled "Towards Quadruped-Provided Localization and Active Tracking for Nano-UAVs", will appear in the CLAWAR 2026 proceedings (Springer, Lecture Notes in Networks and Systems)
Robotics (cs.RO)
arXiv:2610.06215 [cs.RO]
(or arXiv:2610.06215v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2610.06215 arXiv-issued DOI via DataCite (pending registration)
Full text under the publisher's open licence · 268 words
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