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arXiv Robotics — research abstracts· Ugur Kafkasyali, Mihnea Toader, Julia Richter, Turcan Tuna, Cesar Cadena, Marco Hutter·· 5 hours agoSignalEditorial score75

SAFARI: Semantic- And Frontier-driven Autonomous Risk Inspection

SAFARI: Semantic- And Frontier-driven Autonomous Risk Inspection

Summary

This paper introduces SAFARI, a framework that unifies semantic object detection with frontier-based exploration to enable risk-aware autonomous mapping in hazardous environments. Evaluated across 11 missions on a quadruped platform at three field sites, the system achieved 98.7% coverage of accessible areas and operated without human intervention for 97.6% of mission time, detecting objects as small as 15cm. Ablation studies highlight the importance of object-size awareness and safety-aware path planning for effective hazardous-object search.

Editorial context

The authors present SAFARI, a framework integrating semantic object detection and risk assessment into autonomous exploration on a quadruped platform, validated across 11 field missions with reported metrics including 98.7% area coverage and 97.6% operator-free operation time.

Source: arXiv Robotics — research abstracts · Read original article ↗

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Publisher-reported claims, with original evidence. These results have not been independently verified by RoboSignal.

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Reported autonomousOpen source S2

Reported numbers

  • minimum_detected_object_size_cm

    15

    View original evidence
    tion and planning with both geometric and semantic evidence. We evaluated SAFARI in 11 missions across three field sites on a quadruped platform. The framework achieved an average coverage of 98.7% of the accessible mission area, without operator intervention for 97.6% of mission time, and detected objects with characteristic dimensions as small as 15cm. Lastly, through ablation studies and a detailed analysis of sys
    Open source S4
  • mission_count

    11

    Reported trials

    View original evidence
    tion and planning with both geometric and semantic evidence. We evaluated SAFARI in 11 missions across three field sites on a quadruped platform. The framework achieved an average coverage of 98.7% of the accessible mission area, without operator intervention for 97.6% of mission time, and detected objects with characteristic dimensions as small as 15cm. Lastly, through ablation studies and a detailed analysis of sys
    Open source S4
  • field_sites_count

    3

    Reported trials

    View original evidence
    tion and planning with both geometric and semantic evidence. We evaluated SAFARI in 11 missions across three field sites on a quadruped platform. The framework achieved an average coverage of 98.7% of the accessible mission area, without operator intervention for 97.6% of mission time, and detected objects with characteristic dimensions as small as 15cm. Lastly, through ablation studies and a detailed analysis of sys
    Open source S4
  • paper: not_reported
  • code: not_reported
  • weights: not_reported
  • dataset: not_reported
Source excerpts and review record

Automatically extracted; no manual editorial approval recorded.

d with operating near potentially hazardous objects. Moreover, many systems have been demonstrated primarily in simulation or controlled environments, leaving limited validation of risk-aware semantic exploration in complex, unstructured field settings. To address this gap, we propose SAFARI, a framework that treats object detection as a native channel of a unified probabilistic map, thereby jointly informing explora

Open source S3

arXiv:2610.41456v1 Announce Type: new Abstract: Robotic exploration can reduce human exposure to hazardous environments by autonomously searching unknown areas for objects of interest while constructing a complete, risk-aware map. However, existing autonomous exploration approaches typically prioritize geometric coverage or information gain, without explicitly coupling semantic object detection and the risk associate

Open source S2

tion and planning with both geometric and semantic evidence. We evaluated SAFARI in 11 missions across three field sites on a quadruped platform. The framework achieved an average coverage of 98.7% of the accessible mission area, without operator intervention for 97.6% of mission time, and detected objects with characteristic dimensions as small as 15cm. Lastly, through ablation studies and a detailed analysis of sys

Open source S4

Source:arXiv Robotics — research abstracts · arxiv.org

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