Development and Investigation of a Motion Planning Algorithm for a Mobile Robot with a Smart Machine Vision System

A. Martyshkin, D. Trokoz, I. I. Salnikov
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引用次数: 4

Abstract

This study is devoted to the challenges of motion planning for mobile robots with smart machine vision systems. Motion planning for mobile robots in the environment with obstacles is a problem to deal with when creating robots suitable for operation in real-world conditions. The solutions found today are predominantly private, and are highly specialized, which prevents judging of how successful they are in solving the problem of effective motion planning. The purpose of this study: develop and investigate a motion planning algorithm for a mobile robot with a smart machine vision system. The research subject for this article is a motion planning algorithm for a mobile robot with a smart machine vision system. This study provides a review of domestic and foreign mobile robots that solve the motion planning problem in a known environment with unknown obstacles. The following navigation methods are considered for mobile robots: local, global, individual. In the course of work and research, a mobile robot prototype has been built, capable of recognizing obstacles of regular geometric shapes, as well as plan and correct the movement path. Environment objects are identified and classified as obstacles by means of digital image processing methods and algorithms. Distance to the obstacle and relative angle are calculated by photogrammetry methods, image quality is improved by linear contrast enhancement and optimal linear filtering using the Wiener-Hopf equation. Virtual tools, related to mobile robot motion algorithm testing, have been reviewed, which led us to selecting Webots software package for prototype testing. Conclusions have been drawn regarding the concluded research.
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基于智能机器视觉系统的移动机器人运动规划算法的开发与研究
本研究致力于研究具有智能机器视觉系统的移动机器人运动规划所面临的挑战。移动机器人在障碍物环境中的运动规划是创建适合在现实环境中运行的机器人时需要解决的问题。今天发现的解决方案主要是私人的,并且高度专业化,这使得人们无法判断它们在解决有效运动规划问题方面有多成功。本研究的目的:开发和研究一种具有智能机器视觉系统的移动机器人运动规划算法。本文的研究课题是基于智能机器视觉系统的移动机器人运动规划算法。本文综述了国内外移动机器人在解决已知环境下未知障碍物运动规划问题方面的研究进展。移动机器人的导航方法包括:局部导航、全局导航和个体导航。在工作和研究的过程中,已经建立了一个移动机器人原型,能够识别规则几何形状的障碍物,并规划和纠正运动路径。利用数字图像处理方法和算法对环境物体进行障碍物识别和分类。利用摄影测量法计算图像与障碍物的距离和相对角度,利用线性对比度增强和Wiener-Hopf方程进行最优线性滤波,提高图像质量。对与移动机器人运动算法测试相关的虚拟工具进行了综述,因此我们选择了Webots软件包进行原型测试。对已完成的研究得出了结论。
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