EAPTON:基于事件的开/关机增强型抗干扰电力线跟踪系统

Jiannan Zhao, Wenyuan Zhang, Yang Wang, Shaonan Chen, Xiang Zhou, Shuang Feng
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引用次数: 0

摘要

基于事件的电力线检测和跟踪是一个蓬勃发展的研究课题,在自主电力线检测方面具有重要意义,特别是对于有效载荷有限的无人机而言。目前,已开发出基于事件的线路检测方法来解决动态场景中的线路检测问题,包括基于无人机的电力线跟踪。然而,由于事件相机的运动灵敏度,要消除复杂背景中的群集事件造成的错误线路检测具有挑战性。受动物运动视觉的启发,我们提出了 EAPTON 算法,以解决面对复杂背景时易受影响的鲁棒性问题。在我们的方法中,亮度的增加(ON 事件)和减少(OFF 事件)分别在并行通路中处理,这在动物的运动视觉中非常普遍。为了提高对电力线的选择敏感性,我们利用了电力线双侧同时出现孪生 "亮 "和 "灭 "事件的特点。我们在有背景噪声的模拟电力线检测场景中验证了我们的算法,其鲁棒性优于 SOTA 算法。令人惊讶的是,我们发现无人机与目标(如电线)之间的相对运动类型与 ON/OFF 事件的统计不对称密切相关,这为其他机器人任务中的运动估计提供了一种视觉线索模式,并可能有助于解释为什么 ON/OFF 神经机制存在于众多动物的运动视觉系统中。
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EAPTON: Event-based Antinoise Powerlines Tracking with ON/OFF Enhancement
Event-based powerlines detection and tracking is a thriving research topic with significance in autonomous powerlines inspection, especially for payload-limited UAVs. Currently, event-based line detection methods are developed to address line detection in dynamic scenes, including UAV-based powerlines tracking. However, due to the motion sensitivity of event cameras, it is challenging to eliminate false line detection caused by clustered events from a complex background. Taking inspiration from animals’ motion vision, we propose the EAPTON algorithm to address the vulnerable robustness against complex backgrounds. In our method, the brightness increments (ON events) and decrements (OFF events) are separately processed in parallel pathways, which is prevalent in animals’ motion vision. To increase selective sensibility to powerlines, we utilize the feature that twin-born ON and OFF events will simultaneously arise on the bilateral side of the powerlines. We verified our algorithm in a simulated powerlines inspection scenario with background noise, it outperforms the SOTA algorithm in robustness. Surprisingly, we found that the relative motion type between UAV and the target (e.g., powerlines) is strongly correlated with the statistical asymmetry of the ON/OFF events, which provides a modal of visual cues for motion estimation in other robotic tasks and may shed a light on the explanation of why ON/OFF neural mechanism exists in numerous animals motion vision systems.
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