手势控制机械臂

Md Musfiq Us Saleheen, Md Rabbul Fahad, R. Khan
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摘要

机械臂在需要快速可靠性能的行业中非常有效。这些高效的设备本质上是自动化系统,与人类不同,它们不会感到疲倦或需要休息。这些机器已经使用了很多年,但最近随着复杂传感器的进步取得了重大进展。如今的机械臂上装有各种传感器,可以让它们四处移动,并在工作区域内迅速做出反应。介绍了一种人体手势控制的低成本自动机械臂。在本系统中,Arduino Mega微控制器从所有传感器获取信息,并借助传感器的值正确管理伺服电机。控制机械臂上各种伺服器所需的所有传感器都放置在手套中。在该系统中,机械臂由两个柔性传感器控制。一个伸缩传感器连接在手套的食指部分来控制手臂的爪子,另一个连接在手套的中指部分来调节手臂的手腕。一个陀螺仪也固定在手套上,以跟踪前臂和底座的运动。因此,根据手套的角度是向左还是向右,基础伺服器会顺时针或逆时针移动。但是,如果手套向上或向下倾斜,陀螺仪数据将导致前臂伺服器顺时针或逆时针旋转。传感器的值转换为伺服电机的旋转度。传感器的值转换为伺服电机的旋转度。所提出的机器人装置的爪、手腕、前臂伺服器和基座分别可以旋转900度、450度、1200度和1800度。
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Gesture-Controlled Robotic Arm
Robotic arms are highly effective for industries that demand quick and reliable performance. These efficient devices are essentially automated systems that, unlike humans, do not get tired or need a rest. These machines have been used for many years but have recently progressed significantly with the advancement of complex sensors. Robotic arms of today come with various sensors that let them move around and react quickly in their working areas. This paper introduces a human hand gesture-controlled automatic low-cost robotic arm. In this proposed system, an Arduino Mega microcontroller gets the information from all the sensors and correctly manages the servomotor with the help of the value of sensors. All the sensors required to control the various servos on the robotic arm are placed into a hand glove. The robotic arm is operated in this system by two flex sensors. One flex sensor is linked to the glove’s forefinger section to manage the arm’s claw, and another is attached to the middle finger section of the glove to regulate the arm’s wrist. A gyroscope is also pinned to the glove to track the movement of the forearm and base. As a result, the base servo moves clockwise or counterclockwise depending on whether the hand glove is angled right or left. However, if the hand glove is angled upward or downward, the gyroscope data will cause the forearm servo to rotate either clockwise or counterclockwise. The sensors’ values are converted to the servo motors’ rotational degrees. The sensors’ values are converted to the servo motors’ rotational degrees. The claw, wrist, forearm servos and base of the proposed robotic device can rotate up to 900, 450, 1200 and 1800 degrees, respectively.
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