基于边缘深度学习的动态环境高效体积估计

Chandan Kumar, Yamini Mathur, A. Jannesari
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引用次数: 1

摘要

边缘设备在不平坦地形的体积估计方面的应用有所增加。现有技术利用安装在无人机上的边缘设备在飞行中捕获的几个地理标记的景观图像来生成3D模型,并通过手动边界标记进行体积估计。这些方法虽然准确,但需要大量的时间和人力,并且严重依赖GPS。我们提出了一个高效的深度学习框架,可以检测感兴趣的对象,并自动确定被检测对象的动态体积(独立于GPS)。我们的方法采用立体摄像机对物体进行深度感知,并在物体的边界上覆盖一个单位网格网格来进行体积估计。我们探讨了准确度与计算复杂性在技术变化上的权衡。实验表明,该方法与现有方法相比,体积估计时间缩短了几个数量级,并且不依赖于GPS。此外,据我们所知,这是第一个可以在动态环境中执行体积分析的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Efficient Volume Estimation for Dynamic Environments using Deep Learning on the Edge
The utility of edge devices has increased in volume estimation of uneven terrains. Existing techniques utilize several geo-tagged images of the landscape, captured in-flight by an edge device mounted over a UAV, to generate 3D models and perform volume estimation through manual boundary marking. These methods, although accurate, require significant time, human effort and are heavily dependent on GPS. We present an efficient deep learning framework that detects the object of interest and automatically determines the volume (independent of GPS) of the detected object on-the-fly. Our method employs a stereo camera for depth sensing of the object and overlays a unit mesh grid over the object's boundary to perform volume estimation. We explore the accuracy vs computational complexity trade-off on variations of our technique. Experiments indicate that our method reduces the time for volume estimation by several orders of magnitude in contrast to existing methods and is independent of GPS as well. Also, to the best of our knowledge, this is the first method that can perform volume analysis in a dynamic environment.
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