基于墙-地板边界线的平板电脑AGV自主运行控制系统

Anar Zorig, Atsushi Haginiwa, Hiroyuki Sato
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引用次数: 0

摘要

在本研究中,我们研究了基于平板电脑的制造设备自动导引车(AGV)的自主运行控制系统。通过对平板电脑采集的图像进行图像处理,从而控制自动车辆的行驶方向。在图像处理步骤中,在检测到边缘后,通过分析这些边缘得到墙-地板的边界。利用最小二乘法对墙-地板边界进行求解,计算出AGV的运动方向。为了提高移动方向的精度,我们将边缘检测图像划分为网格单元,在边缘稀疏的网格单元中去除所有边缘。此外,我们将所有边界点划分为垂直细分,估计不寻常的小边界并丢弃它们。通过我们的研究,AGV的运行距离从10米提高到整个测试过程的长度。测试跑道的长度为100米。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Autonomous running control system of an AGV by a tablet PC based on the wall-floor boundary line
In our research, we have studied the autonomous running control system of the automatic guided vehicles (AGV) used in the manufacturing facilities using the tablet PC. The moving direction of automatic vehicle is controlled by the results of image processing methods on captured images of the tablet PC. In the image processing step, after detecting edges we obtain wall-floor boundaries by analyzing those edges. By applying the least square method on the wall-floor boundaries, we calculate the moving direction of the AGV. To improve the accuracy of the moving direction, we divide the edge detection image into grid cells and remove all edges in cells with sparse edges. Furthermore, we divided all boundary points into vertical subdivisions, estimated unusual small boundaries and discarded them. As a result of our research, the running distance of the AGV was improved from 10 meters to the whole length of the testing course. The distance of testing course is 100 meters long.
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