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Development of Robotic Arm Manipulator Control System for Micromilling Tool Wear Monitoring Based on Computer Vision

机译:基于计算机视觉的微型工具磨损监控机器人机械臂操纵器控制系统的开发

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The process of documenting and measuring for monitoring the tool wear in micromilling requires high accuracy. This process uses a Dino-Lite digital microscope to take pictures and is repeated every time after machining by removing the cutting tool from the spindle on the micromilling machine. Therefore, the development of a manipulator robot is made to simplify the process of monitoring the micromilling tool wear. Control of servo and stepper motors movements in the development of a robot manipulator control system are performed using an Arduino microcontroller board MEGA2560. The actuator is moved to place the end-effector coordinate point at the tip of the Dino-Lite lens to the coordinate point at the tip of the micromilling cutting tool's surface. To find kinematics solutions for robotic manipulators, the help of Python software is used to facilitate calculations. The kinematics solution in the form of a joint value will be sent to the servo via a microcontroller using the command code created using the Arduino IDE software. Based on research conducted there are accuracy errors on servo 1, 2, and 3 values of 16.471%, 1.463%, and 0.588%. However, after the error compensation process is carried out, the value is reduced to 0.003%, 0.143%, and −0.382%, then repeatability of the robot manipulator movement is good in each servo, which is close to 0 so that it can put the end-effector to the intended point and can make the robot manipulator work according to its function.
机译:记录和测量监控微米磨损的过程需要高精度。该过程使用Dino-Lite数字显微镜拍摄照片,通过从微磨机上的主轴上移除切削工具,每次加工后一次重复。因此,使操纵器机器人的发展简化监测微磨刀刀具的过程。使用Arduino Micrococtroller Loce Mega2560进行伺服和步进电动机控制系统的开发运动中的移动。移动致动器将末端效应器坐标点放置在派氏镜头的尖端处的末端效应器坐标点,以微剪切工具表面的尖端处的坐标点。为了找到机器人操纵器的运动学解决方案,使用Python软件的帮助来促进计算。使用使用Arduino IDE软件创建的命令代码,将通过微控制器将以关节值的形式的运动学解决方案发送到伺服。基于研究进行了伺服1,2和3值的精度误差为16.471%,1.463%和0.588%。但是,在进行误差补偿过程之后,该值降低至0.003%,0.143%和-0.382%,然后机器人操纵器运动的可重复性在每个伺服上都贴近,接近0,使其可以放置最终执行器到预期的点,可以根据其功能使机器人操纵器工作。

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