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End-effector design optimisation and multi-robot motion planning for handling compliant parts

机译:结束 - 效应器设计优化和用于处理兼容零件的多机器人运动规划

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摘要

The deformation of compliant parts during material handling is a critical issue that can significantly affect the productivity and the parts’ dimensional quality. There are multiple relevant aspects to consider when designing end-effectors to handle compliant parts, e.g. motion planning, holding force, part deformations, collisions, etc. This paper focuses on multi-robot material handling systems where the end-effector designs influence the coordination of the robots to prevent that these collide in the shared workspace. A multi-disciplinary methodology for end-effector design optimisation and multi-robot motion planning for material handling of compliant parts is proposed. The novelty is the co-adaptive optimisation of the end-effectors’ structure with the robot motion planning to obtain the highest productivity and to avoid excessive part deformations. Based on FEA, the dynamic deformations of the parts are modelled in order to consider these during the collision avoidance between the handled parts and obstacles. The proposed methodology is evaluated for a case study that considers the multi-robot material handling of sheet metal parts in a multi-stage tandem press line. The results show that a substantial improvement in productivity can be achieved (up to 1.9%). These also demonstrate the need and contribution of the proposed methodology.
机译:材料处理期间柔顺部件的变形是一个重要问题,可以显着影响生产率和零件的尺寸质量。设计最终效应器以处理兼容零件时,有多种相关方面需要考虑,例如,动作规划,持有力,部分变形,碰撞等。本文重点介绍了终端效应器设计影响机器人的协调以防止共享工作空间中的多机器人材料处理系统。提出了一种多学科方法,适用于符合零件的材料处理的材料处理优化和多机器人运动规划。新颖性是具有机器人运动规划的最终效果结构的共同适应优化,以获得最高的生产率,避免过度部分变形。基于FEA,零件的动态变形是建模的,以便在处理零件和障碍物之间的碰撞期间考虑这些。为提出的方法进行评估,以考虑多级串联压力线中金属板部件的多机器人材料处理。结果表明,可以实现生产率的显着提高(高达1.9%)。这些还证明了所提出的方法的需求和贡献。

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