6-DoF Object Tracking with Event-based Optical Flow and Frames
Zhichao Li, Arren Glover, Chiara Bartolozzi, Lorenzo Natale

TL;DR
This paper introduces a hybrid approach combining event-based optical flow and RGB-based pose estimation to achieve real-time 6-DoF object tracking at high speeds, overcoming limitations of traditional cameras.
Contribution
It proposes a novel method that integrates event-based optical flow with global pose estimation for high-speed 6-DoF object tracking, leveraging the strengths of both sensor types.
Findings
Effective high-speed object pose tracking demonstrated on synthetic data.
Method outperforms traditional approaches in high-speed scenarios.
Validated on real-world data showing robustness and accuracy.
Abstract
Tracking the position and orientation of objects in space (i.e., in 6-DoF) in real time is a fundamental problem in robotics for environment interaction. It becomes more challenging when objects move at high-speed due to frame rate limitations in conventional cameras and motion blur. Event cameras are characterized by high temporal resolution, low latency and high dynamic range, that can potentially overcome the impacts of motion blur. Traditional RGB cameras provide rich visual information that is more suitable for the challenging task of single-shot object pose estimation. In this work, we propose using event-based optical flow combined with an RGB based global object pose estimator for 6-DoF pose tracking of objects at high-speed, exploiting the core advantages of both types of vision sensors. Specifically, we propose an event-based optical flow algorithm for object motion…
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Taxonomy
TopicsCCD and CMOS Imaging Sensors · Advanced Memory and Neural Computing · Advanced Vision and Imaging
