Design and Implementation of the Irrigation Robot Movement System on Grid Land using 2D Array Algorithm

Yohanssen Pratama, I. G. Eka Dirgayussa, Eglin Noverinda Situmeang, Tegar Arifin Prasetyo
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Abstract

Currently, the use of robots in agriculture is one of the studies carried out by many researchers. The ability of a robot that can consistently work will make it easier to monitor and water agricultural crops, in addition to the nutrient requirements of plants. There are several parameters that must be considered consistently every day so that plants can grow optimally, namely soil moisture, the amount of water needed by plants, and spacing, so as to produce a maximum broccoli harvest with good quality. This study, study was conducted on the design and implementation of an irrigation robot movement system to monitor the growth of broccoli plants. This irrigation robot has the ability to do watering, and plant monitoring and can move directly to the work point automatically. This irrigation robot is designed using a 2D array algorithm so that the irrigation robot is able to move to a predetermined coordinate point, to enable the robot to move according to the coordinates, the land planted with broccoli will be divided into grids. Testing the functionality of the robot is done by giving a step to the stepper motor and dividing the land with a box width of 7.5 cm on the land prototype. Based on the implementation results obtained 97% accuracy for movement on the x-axis, 99% for movement on the y-axis, and 100% for the z-axis. The robot has worked well and fulfilled the expected functionality to carry out the task of moving the robot to coordinates for monitoring and watering plants.
基于二维阵列算法的网格土地灌溉机器人运动系统设计与实现
目前,机器人在农业中的应用是许多研究人员正在进行的研究之一。除了满足植物的营养需求外,机器人持续工作的能力将使其更容易监控和灌溉农作物。为了使植物生长最佳,每天必须始终考虑几个参数,即土壤湿度,植物所需的水量和间距,以便生产出最大质量的西兰花。本研究对灌溉机器人运动系统的设计和实现进行了研究,以监测西兰花植株的生长情况。该灌溉机器人具有浇水、植物监测等功能,可以自动直接移动到工作点。本灌溉机器人采用二维阵列算法进行设计,使灌溉机器人能够移动到预定的坐标点,使机器人能够根据坐标移动,将种植西兰花的土地划分为网格。测试机器人的功能是通过给步进电机一个步骤,并在陆地原型上以7.5厘米的盒子宽度划分土地来完成的。根据实现结果,x轴上的运动精度为97%,y轴上的运动精度为99%,z轴上的运动精度为100%。该机器人运行良好,实现了预期的功能,完成了将机器人移动到坐标进行监测和浇水的任务。
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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