RSS 2025poster0 citations

Demonstrating ViSafe: Vision-enabled Safety for High-speed Detect and Avoid

Parv Kapoor, Ian Higgins, Nikhil Varma Keetha, Jay Patrikar, Brady Moon, Zelin Ye, Yao He, Ivan Cisneros

Abstract

Maintaining visual separation is crucial to achieving safe and seamless high-density operation of airborne vehicles in shared airspace, where pilots currently shoulder this responsibility. To automate this, we present ViSafe, a high-speed airborne vision-only collision avoidance system. Designed under SWaP-C constraints, ViSafe is built using a tightly integrated learning-enabled edge-AI framework deployed on a custom multi-camera hardware prototype, offering a full-stack solution to the Detect and Avoid (DAA) problem. By leveraging perceptual input-focused control barrier functions (CBF) to design, encode, and enforce safety thresholds, ViSafe can provide provably safe runtime guarantees on self-separation for high-speed aerial operations. We evaluate ViSafe’s performance through an extensive test campaign involving both simulated digital-twin and real-world flight scenarios. By independently varying agent types, closure rates, interaction geometries, and environmental conditions (e.g., weather and lighting), we demonstrate that ViSafe consistently ensures self-separation across diverse scenarios. In first-of-its-kind real-world high-speed collision avoidance tests with closure rates reaching 144 km/hr, ViSafe sets a new benchmark for vision-only autonomous collision avoidance, establishing a new standard for safety in high-speed aerial navigation.

BibTeX
@inproceedings{rss2025_demonstratingvis,
  title = {Demonstrating ViSafe: Vision-enabled Safety for High-speed Detect and Avoid},
  author = {Parv Kapoor and Ian Higgins and Nikhil Varma Keetha and Jay Patrikar and Brady Moon and Zelin Ye and Yao He and Ivan Cisneros and Changliu Liu and Eunsuk Kang and Sebastian Scherer},
  booktitle = {RSS 2025},
  year = {2025}
}
Demonstrating ViSafe: Vision-enabled Safety for High-speed Detect and Avoid · RSS 2025