基于CNN模型的跌倒检测在移动机器人上实现

Carlos Menacho, Jhon Ordoñez
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引用次数: 7

摘要

坠落事故是需要解决的严重事件。一般来说,老年人可能会遭受这些可能导致受伤甚至死亡的事故。卷积神经网络(CNN)的使用已经实现了最先进的跌倒检测,但它需要很高的计算成本。在这项工作中,我们提出了一种参数数量减少的高效CNN架构,并将其应用于具有资源受限硬件(Nvidia Jetson TX2平台)的移动机器人服务中的跌倒检测。此外,还比较了不同的预训练CNN模型,以衡量它们在真实场景中的表现,以及其他功能,如跟随人和导航。此外,通过提取两幅连续RGB图像的光流提取获得的时间特征来进行跌落检测。我们的结果证实了所提出的网络速度更快,更适合在资源受限的硬件上运行。使用所提出的架构,我们的模型达到了88.55%的准确率,在GPU上可以达到23.16 FPS,在CPU上可以达到10.23 FPS。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fall detection based on CNN models implemented on a mobile robot
Fall accidents are serious events that need to be addressed. Generally, elderly people could suffer these accidents that may lead injures or even death. The use of Convolutional Neural Networks (CNN) has achieved the state of the art for fall detection, but it requires a high computational cost. In this work, we propose an efficient CNN architecture with a reduced number of parameters, which is applied to fall detection in a service with a mobile robot, equipped with a resource-constrained hardware (Nvidia Jetson TX2 platform). Also, different pre-trained CNN models are compared to measure their performances in real scenarios, in addition with other functions like following people and navigation. Furthermore, fall detection is carried out by extraction of temporal features obtained with an Optical Flow extraction from two consecutive RGB images. The proposed network is confirmed by our results to be faster and more suitable for running on resource-constrained Hardware. Our model achieves 88.55% of accuracy using the proposed architecture and it works at 23.16 FPS on GPU and 10.23 FPS on CPU.
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