In this paper, some of the distance sensor, including Kinect, Hokuyo UTM-30LX, and RPLidar were observed experimentally. Strengths and weaknesses of each sensor were reviewed so that it can be used as a reference for selecting a suitable sensor for any particular application. A software application has been developed in C programming language as a platform for gathering information for all tested sensors. According to the experiment results, it showed that Hokuyo UTM-30LX results in random normally distributed error on measuring distance with average error 21.94 mm and variance 32.11. On the other hand, error measurement resulted by Kinect and RPLidar strongly depended on measured distance of the object from the sensors, while measurement error resulted by Kinect had a negative correlation with the measured distance and the error resulted by RPLidar sensor had a positive correlation with the measured distance. The performance of these three sensors for detecting a transparent object shows that the Kinect sensors can detect the transparent object on its effective range measurement, Hokuyo UTM-30LX can detect the transparent object in the distance more than equal to 200 mm, and the RPLidar sensor cannot detect the transparent object at all tested distance. Lastly, the experiment shows that the Hokuyo UTM-30LX has the fastest processing time significantly, and the RPLidar has the slowest processing time significantly, while the processing time of Kinect sensor was in between. These processing times were not significantly affected by various tested distance measurement.
翻译:在本文中,对包括Kinect、Hokuyo UTM-30LX和RPLidar在内的一些远程传感器进行了实验性观测。对每个传感器的优缺点进行了审查,以便将其用作为任何特定应用选择合适的传感器的参考。开发了C编程语言软件应用程序,作为为所有测试的传感器收集信息的平台。根据实验结果,它显示Hokuyo UTM-30LX在测距时通常随机分配差错,误差为平均误差21.94毫米和差差差32.11。另一方面,Kinect和RPlidar的误差测量结果在很大程度上取决于天体与传感器的测距,而Kinect的测距差差差差差差差差差与任何特定应用软件的参考度。而RPlidar的误测错误与测距离的距离有负相关性,而RPlidar传感器的误差则与测距差值有正比。这三个传感器用来探测其有效测距测量的透明对象的性能,HIV-30级传感器能够更近200毫米的测距,而RPlidder传感器无法大大地探测到在H-30级的透明测距处理过程的时段之间的时间,最后显示所有测距。K-LK-LK-LX的慢试验过程的进度。