Design of Digital Planner and 3D Vision System for Robot Bin Picking

Guoyuan Li, Benjamin Karlsen, Vegard Herland Ytrøy, Ola Jon Mork, Houxiang Zhang
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Abstract

Robot bin picking plays an important role in modern manufacturing process. In order to make these manufacturing systems more efficient and productive, it is essential to make a valid grasping plan from gripper design, industrial part recognition, pose estimation, to grasping evaluation. This paper proposes such a planning framework that enables the robot to learn to grasp an industrial part and improve the performance in two phases. First, prior knowledge of 3D model is utilized for gripper selection, database generation and grasping point evaluation in a design phase. Next, attempts for single part grasping are made in a test phase, and grasping failures will trigger the redesign in the previous phase. The grasping plan is then used for grasping randomly distributed parts. A risk assessment is made per part for selection of best candidate of parts, taking both grasping efficiency and potential collision into account. At last, pose adjustment is applied on the robot to improve grasping capability. Through simulation and field test, we demonstrate that the two-phase planning framework is a practical solution for robot bin picking applications.
机器人拣料斗数字规划与三维视觉系统设计
机器人拣料在现代制造过程中起着重要的作用。为了提高制造系统的效率和生产效率,从夹具设计、工业零件识别、姿态估计到抓取评估,都需要制定有效的抓取方案。本文提出了这样一个规划框架,使机器人能够分两个阶段学习抓取工业零件并提高性能。首先,在设计阶段利用三维模型的先验知识进行夹具选择、数据库生成和抓取点评估;接下来,在测试阶段尝试抓取单个零件,抓取失败将触发前一阶段的重新设计。然后将抓取计划用于抓取随机分布的零件。在考虑抓取效率和潜在碰撞的情况下,对每个零件进行风险评估,选择最佳候选零件。最后,对机器人进行姿态调整,提高抓取能力。通过仿真和现场测试,我们证明了两阶段规划框架是一个实用的解决方案,机器人拣货应用。
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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