Implementation of a home appliance mobile platform based on computer vision: self-charging and mapping

Florin-Dan Secuianu, C. Lupu
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引用次数: 4

Abstract

One of the key features of a fully autonomous mobile robot is represented by the ability to recharge itself with energy. This paper proposes a solution for recharging an autonomous mobile robot with power so that it can perform tasks with little or no human intervention. This paper continues our work on the implementation of a mobile platform based on computer vision. In a previous paper, we implemented the foundation of the platform, in which a mobile robot detected several targets and navigated autonomously between them. We have shown that a small-size computer is perfectly capable of performing multiple tasks such as object detection, processing input data from distance sensors, sending movement commands to electric motors. The charging areas are marked with specific signs that the mobile robot can recognize using computer vision software and specific algorithms. The robot can navigate to such an area, connect to a socket, fully recharge with energy, disconnect and resume its preset activities. The prototype for this study uses in-house developed software based on OpenCV graphic library, Python language, Unix-like operating system - Debian Jessie and low-cost, high performance computer Raspberry Pi 3, model B with a CPU at 1.2 GHz 64bit quad-core ARM, 1GB of RAM, commercial robotic kits, ultrasonic sensors, Raspberry Pi camera, commercial Li-Po rechargeable battery and adaptor, a wireless charging kit, and a digital compass. The paper presents a series of promising results obtained with this structure, which could be used as a platform for future applications in various fields.
一个基于计算机视觉的家电移动平台的实现:自充电与映射
完全自主移动机器人的关键特征之一是能够为自己充电。本文提出了一种为自主移动机器人充电的解决方案,使其能够在很少或没有人为干预的情况下执行任务。本文继续研究了基于计算机视觉的移动平台的实现。在之前的一篇论文中,我们实现了该平台的基础,其中移动机器人检测多个目标并在它们之间自主导航。我们已经证明,一台小型计算机完全能够执行多种任务,如物体探测、处理距离传感器的输入数据、向电动机发送运动命令。收费区域标有特定的标志,移动机器人可以使用计算机视觉软件和特定算法识别这些标志。机器人可以导航到这样的区域,连接到插座,充满电,断开并恢复其预设的活动。本研究的原型使用内部开发的基于OpenCV图形库的软件,Python语言,类unix操作系统- Debian Jessie和低成本,高性能的计算机树莓派3,型号B, CPU为1.2 GHz 64位四核ARM, 1GB RAM,商用机器人套件,超声波传感器,树莓派相机,商用Li-Po可充电电池和适配器,无线充电套件和数字指南针。本文介绍了利用该结构获得的一系列有希望的结果,该结构可以作为未来在各个领域应用的平台。
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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