High Stability Tracking with Sparse Location Information

Yangpu Cao, Yuan Chen, Yaoran Sun, Sailing He
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引用次数: 1

Abstract

Modern trackers based on traditional image processing or machine learning have made great progress in recent years but still face the problem of error tracking. To make use of these trackers with less error tracking, we propose to combine the object detection and the object localization technology together in our tracking system. The object localization technology can get the positions of moving objects in real time but suffers from low precision, which can compensate this with the modern object detection of high accuracy. The object detection based on deep learning, such as Faster RCNN, which achieves excellent object detection accuracy on PASCAL VOC 2007, 2012 datasets with 300 proposals per image, can get 43 mAP on COCO detection dataset. Object localization devices such as a UWB module will provide us real-time locations of multi-objects with the precision of about 30 cm. These locations can be transformed into pixel coordinates. OpenCV also play an important role in our experiment for providing useful API for camera calibration, coordinate transformation, tracking and so on. With the support of the tools mentioned above, we can develop the state-of-the-art trackers. The major part of the tracker is Long-term Correlation Tracking (LCT). Besides, we provide position information and detection results of our interested objects and try to match them to get reliable positions. By matching the target location from the image tracker and the UWB device, error tracking will be corrected when occurred. The proposed system gives more stable results than existing trackers such as Kernelized Correlation Filters (KCF). This will be helpful for the application scenarios require stable and accurate tracking.
基于稀疏位置信息的高稳定性跟踪
基于传统图像处理或机器学习的现代跟踪器近年来取得了很大的进步,但仍然面临着错误跟踪的问题。为了利用这些跟踪器,减少跟踪误差,我们提出在跟踪系统中将目标检测和目标定位技术结合起来。目标定位技术可以实时获取运动物体的位置,但精度较低,可以用现代高精度的目标检测来弥补这一缺陷。基于深度学习的目标检测,如Faster RCNN,在PASCAL VOC 2007、2012数据集(每张图像300个建议)上取得了优异的目标检测精度,在COCO检测数据集上可以得到43个mAP。物体定位设备,如UWB模块将为我们提供多物体的实时位置,精度约为30厘米。这些位置可以转换成像素坐标。OpenCV在我们的实验中也发挥了重要作用,为摄像机校准、坐标变换、跟踪等提供了有用的API。在上述工具的支持下,我们可以开发最先进的跟踪器。跟踪器的主要部分是长期相关跟踪(LCT)。此外,我们提供我们感兴趣的目标的位置信息和检测结果,并尝试将它们匹配以获得可靠的位置。通过匹配来自图像跟踪器和超宽带设备的目标位置,错误跟踪将在发生时得到纠正。该系统比现有的核相关滤波器(KCF)等跟踪器具有更稳定的结果。这将有助于需要稳定和准确跟踪的应用场景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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