Zigbee-assisted mobile robot gardener

Chung-Liang Chang, Jia-Heng Jhu
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引用次数: 8

Abstract

With an aging population and recent change in traditional industries, automatic agricultural production has become inevitable in intensive agriculture. Agriculture in every country has gradually developed in terms of low-cost technical development and transformed to tourism type of orchard or greenhouse. Thus, the development of autonomous mobile robot gardener to assist farmers has become quite important. In this study, the prototype semi-autonomous mobile robot gardener is proposed to meet the requirement for spraying in the greenhouse. A robot designed with three wheels and driven by front-wheels whose speed difference controls the moving direction of the robot. The sensors including wide-angle laser rangefinder (LRF), single-point LRF, ultrasonic, and Hall-rotary encoders are equipped in the robot. The ARM-based controller serves as the main core processor to proceed with the behavior of mobile robot gardener. The initial tests are conducted in miniature greenhouse. The operation area is divided into multiple regions in the greenhouse. The internal map information, the location of soil moisture sensor modules (including Zigbee sensors), and mobile robot gardener moving path are known a priori. When the particular task within the region requires assistance, the robot moves on to the region and performs spraying task. The robot is equipped with Zigbee transceiver/receiver module to receive spraying task messages from the soil moisture sensor modules. While all task flags are confirmed by the robot, the control and decision-making program are performed under the known location information of the robot. The robot will move towards the selected path (the edge of planting bed) and finally will arrive at designated region. When the spraying work is completed, the robot stays on original operation point and waits for the next task command. The proposed mobile robot gardener can be applied for unmanned management of greenhouse in the future.
zigbee辅助移动机器人园丁
随着人口老龄化和传统产业的变革,农业自动化生产已成为集约化农业发展的必然趋势。各国的农业逐渐以低成本的技术开发方式发展,向旅游型果园或温室转变。因此,开发自主移动机器人园丁来帮助农民变得非常重要。本研究提出了半自主移动机器人园丁原型,以满足温室喷雾作业的需求。设计有三个轮子的机器人,由前轮驱动,前轮的速度差控制机器人的移动方向。传感器包括广角激光测距仪(LRF)、单点激光测距仪、超声波和霍尔旋转编码器。基于arm的控制器作为主核心处理器来处理移动机器人园丁的行为。初步试验在小型温室中进行。温室内的操作区域被划分为多个区域。内部地图信息、土壤湿度传感器模块(包括Zigbee传感器)位置、移动机器人园丁移动路径先验已知。当区域内的特定任务需要辅助时,机器人移动到该区域执行喷涂任务。机器人配备Zigbee收发模块,接收来自土壤湿度传感器模块的喷洒任务信息。在机器人确认所有任务标志的情况下,在机器人已知的位置信息下执行控制和决策程序。机器人沿选定路径(种植床边缘)移动,最终到达指定区域。喷涂工作完成后,机器人停留在原作业点,等待下一个任务指令。提出的移动机器人园丁可用于未来温室的无人管理。
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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