部分解耦机器人运动学逆解的新方法

Lei Zhang, Junqiu Zuo, Xingguo Zhang, Xingtian Yao, Liguo Shuai
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引用次数: 4

摘要

传统的基于D-H模型的运动学逆解算法必须假设机械手末端d6 =0,或者基于D-H的运动学方程的关节变量很难被孤立求解。在实际应用中,通常会出现d6≠0的情况,因此需要在D-H模型的最后一帧与实际运行帧之间进行补充变换,降低了效率。本文提出了一种新的不考虑d6 =0假设的运动学逆解。我们发现,即使d6≠0,部分解耦机器人的关节变量也可以很容易地分离。该方法采用一种新的逆矩阵乘法序列来求解机器人运动方程的变量。反解过程简单,计算成本低。最后,通过算例验证了所提方法的准确性。
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A new approach to inverse kinematic solution for a partially decoupled robot
Conventional D-H model based inverse kinematic solution algorithms have to hypothesize that d6 =0 at the end of the robot hand, or the joint variables of D-H based kinematic equations can hardly be isolated to be solved. In practical application, d6 ≠ 0 usually occurs, hence it is required for supplemental transformation between the last frame of the D-H models and real operation frame, which decreases the efficiency. In this paper, a new inverse kinematic solution without the hypothesis of d6 =0 is proposed. We found that the joint variables of the partially decoupled robot can be separated without great difficulty even though d6 ≠ 0. The new approach uses a new multiplication sequence of the inverse matrix for solving the variables of the kinematic equation of the robot. The inverse solution process is straightforward and computationally cheap. Last, some exemplifications are given to valid the accuracy of the proposed approach.
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