R. Mardiyanto, Mochamad Fajar Rinaldi Utomo, D. Purwanto, H. Suryoatmojo
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引用次数: 20

摘要

手势识别传感器是一种基于加速度计和陀螺仪的传感器,用于在控制水下遥控机械臂时捕捉操作者的手部位置。该系统的优点是操作人员在使用前不需要进行培训或练习,使用方便。这里的关键问题是新手操作员如何在没有任何特定训练的情况下轻松使用水下远程操作的机器人手臂。传统的水下控制系统采用操纵杆控制,对初学者来说不方便,精度也不高。该系统主要由两个部分组成:(1)地面站和(2)水下遥控机械臂。本文提出了地面站操作人员用于控制水下机器人机械臂的手势识别传感器的研制。该传感器使用安装在肘部、前臂和手腕的加速度计和陀螺仪。这些装置测量每个关节的三维位置,以构建手的三维位置。为了方便使用,我们利用CAD软件对传感器的外壳进行了设计。每个传感器由电路紧凑的Arduino纳米微控制器连接,并嵌入传感器的外壳中。传感器连接到一个微控制器作为主连接到微控制器从(传感器部分)。利用正运动学将这些传感器的值转换为三维位置。通过利用脉冲位置信号的导线将正运动学值发送给水下机器人。然后,利用逆运动学将其再次转换为伺服运动。其结果是操作者能够直接利用手势控制水下远程机械臂。最后,通过安装在操作者手指上的柔性传感器,实现对机器人抓取器的控制。该传感器的精度已在实验室条件下进行了测试,其精度达到98%。
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Development of hand gesture recognition sensor based on accelerometer and gyroscope for controlling arm of underwater remotely operated robot
Hand Gesture Recognition sensor based on accelerometer and gyroscope is a sensor for capturing the positions of operator hand while controlling underwater remotely operated vehicle equipped with an arm. The proposed system has an advantage in its convenience by means of no training or exercise needed for operator before using it. The key issue here is how beginner operator could use easily the underwater remotely operated robot arm without any specific training. The conventional one uses a joystick for controlling the underwater system and it is inconvenience for beginner user as well as less precision. The proposed system consists of two main part: (1) ground station and (2) underwater remotely operated robot arm. This paper proposes the development of hand gesture recognition sensor used by operator at the ground station for controlling robot arm at the underwater robot. The proposed sensor uses accelerometers and gyroscopes installed in elbow, forearm, and wrist. These devices measure 3D position of each joints for constructing 3D position of hand. We design sensor's casing for its convenience of use by using CAD software. Each sensor is connected by Arduino Nano microcontroller having compact circuit and embedded it into sensor's casing. The sensors are connected to a microcontroller acting as master connected to microcontroller slave (sensor part). These sensors value are converted to 3D position by using forward kinematic. The forward kinematic values are sent to the underwater robot by using a wire utilizing Pulse Position Signal. Then, it converted again to servo's movement by using inverse kinematic. The result is operator able to control the underwater remotely robot arm by utilizing hand gesture directly. The last, operator could control the robot gripper based on flex sensor installed in operator's fingers. The accuracy of the sensor has been tested under laboratory condition, it has 98% of accuracy.
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