Integrated collision avoidance and tracking system for mobile robot

I. Ullah, Q. Ullah, F. Ullah, Seoyong Shin
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引用次数: 11

Abstract

In the intelligent transportation system, various accident avoidance techniques have been applied. Among them, one of the most common issues is the collision, which is yet unsolved problem. To this end, we develop collision warning and avoidance system (CWAS), which is implemented in the wheeled mobile robot. Likewise, path planning is a crucial problem in the mobile robots to perform a given task correctly. Here, a tracking system is presented for the mobile robot, which follows an object. Thus, we have implemented an integrated CWAS and tracking system in the mobile robot. Both systems can be activated independently. In the CWAS, the robot is controlled through a remotely controlled device, and collision prediction and avoidance functions are performed. In the tracking system, the robot performs tasks autonomously, where the robot maintains a constant distance from the followed object. The surrounding information is obtained through the range sensors, and the control functions are performed through the microcontroller. The front, left, and right sensors are activated to track the object, and all the sensors are used for the CWAS. Two algorithms based on the sensory information are developed with the distance control approach. The proposed system is tested using the binary logic controller and the fuzzy logic controller (FLC). The comparison of both controllers is also described by preferring time delay and complexity. The efficiency of the robot is improved by increasing smoothness in motion using the FLC, achieving accuracy in tracking, and advancements in the CWAS. Finally, simulation and experimental outcomes have displayed the authenticity of the system.
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移动机器人一体化避碰跟踪系统
在智能交通系统中,各种事故避免技术得到了应用。其中,最常见的问题之一是碰撞,这是一个尚未解决的问题。为此,我们开发了碰撞预警与避免系统(CWAS),并在轮式移动机器人中实现。同样,路径规划也是移动机器人正确执行给定任务的关键问题。本文提出了一种移动机器人跟踪系统。因此,我们在移动机器人中实现了一个集成的CWAS和跟踪系统。两个系统都可以独立启动。在CWAS中,通过遥控装置对机器人进行控制,实现碰撞预测和避碰功能。在跟踪系统中,机器人自动执行任务,机器人与跟随物体保持恒定的距离。通过测距传感器获取周围环境信息,通过单片机实现控制功能。激活前、左、右传感器跟踪物体,所有传感器用于CWAS。在距离控制方法的基础上,提出了两种基于感官信息的算法。采用二值逻辑控制器和模糊逻辑控制器(FLC)对系统进行了测试。两种控制器的比较也通过偏好时延和复杂度来描述。通过使用FLC增加运动的平滑度,实现跟踪的准确性,以及CWAS的进步,提高了机器人的效率。最后,仿真和实验结果验证了系统的真实性。
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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