Penerapan Algoritma Tripod Gait pada Robot Hexapod Menggunakan Arduino Mega128

Andi Chairunnas
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引用次数: 3

Abstract

The movement of the robot with wheels almost do not experience problems setting when road conditions tend to be flat or bypassed. However, problems arise when the condition of the streets where tend to be broken or wavy. With these problems legged robot is suitable for solving the problem. Legged robot itself is divided on several types, among others, two-legged robot (humanoid), four-legged robot (Quadpod), and a six-legged robot (Hexapod). This research will be discussed on how to build a Hexapod robot control at the system by applying the pattern step tripod gait on a Hexapod robot so that the accuracy of movement applied on a Hexapod Robot will produce the maximal movement patterns. In addition before determining the pattern step shall be applied forward gait tripod kinematic. Generally forward kinematic derived from around the corner join configuration so that the position of the end effector in Cartesian spaces (x, y) can determine the position of the corners on a servo motor from different corners of the position or angle of the servo value used to form the shape of the foot of each leg can determine the changes when the maneuver. It was only the application of pattern step tripod gait can be done, the robot can run well and constant can even generate some movement such as forward, backward, turn left, turn right. On testing the movement Forward in open areas and advanced on the Area Covered with an average speed of 5 cm/s, testing Motion backward on open areas and retreat in enclosed areas with an average speed of 4.32 cm/s, testing the rotary motion Right on open and Turning Right on Closed with an average speed of 13 degrees/minutes, testing the rotary motion of the left in the open and Turning left on Closed with an average speed of 12.85 degrees/sec The power needed, overall testing on areas of open and enclosed areas is 0.3 Volts with an overall duration of use 240.8 seconds.
基于Arduino Mega128的六足机器人三足算法表达步态
当道路条件趋于平坦或绕过时,带轮子的机器人的运动几乎不会遇到设置问题。然而,当街道的状况往往是破碎或波浪状时,就会出现问题。有了这些问题,腿式机器人就适合解决这个问题。腿机器人本身分为几种类型,其中包括两足机器人(人形)、四脚机器人(Quadpod)和六脚机器人(Hexapod)。本研究将讨论如何通过在六足机器人上应用模式步进三脚架步态来在系统中建立六足机器人控制,从而使六足机器人的运动精度产生最大的运动模式。此外,在确定模式步骤之前,应应用步态三脚架运动学向前。通常,从拐角周围连接配置导出的正向运动学,使得端部执行器在笛卡尔空间(x,y)中的位置可以确定伺服电机上的拐角的位置,用于形成每条腿的脚的形状的伺服值的位置或角度的不同拐角可以确定机动时的变化。只有模式步进三脚架步态的应用才能完成,机器人才能很好地运行,甚至可以产生一些向前、向后、向左、向右的运动。在测试开放区域的向前运动和以5 cm/s的平均速度在覆盖区域上前进时,测试开放区域上的向后运动和封闭区域内的后退时,测试打开时的向右旋转运动和关闭时的向右转动时,测试平均速度为13度/分钟,以12.85度/秒的平均速度测试左侧打开和左侧打开关闭的旋转运动。在打开和关闭区域进行的整体测试所需功率为0.3伏,整体使用持续时间为240.8秒。
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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