Hexapod robot kinematics modeling and tripod gait design based on the foot end trajectory

Jianbo Sun, J. Ren, Yinglian Jin, Binrui Wang, Dijian Chen
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引用次数: 10

Abstract

Hexapod robots have strong crawling abilities and complex gaits. Referring the configuration of ants, a hexapod robot is designed. Based on the DH parameters and the homogeneous transformation matrix, the direct and inverse kinematic models are built, and the workspace of the foot end is analyzed. For the tripod gait, the relationship between the rotation angle of the leg with respect to body and the foot movement is built. The foot end trajectories of the swing phase are designed by adopting sine and cosine functions, the stance phase by horizontal straight line function. The angle joint trajectories are obtained by evaluating the inverse kinematic equations. Finally, the tripod gaits, including straight, transvers and swivel gaits, are designed. The experimental results illustrate the effectiveness of the robot gait planning algorithms. The design method in this paper is easy to understand and calculate.
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基于足端轨迹的六足机器人运动学建模及三脚架步态设计
六足机器人爬行能力强,步态复杂。参照蚂蚁的构型,设计了六足机器人。基于DH参数和齐次变换矩阵,建立了正运动学和逆运动学模型,分析了足端工作空间。对于三脚架步态,建立了腿部相对于身体的旋转角度与足部运动之间的关系。摆动阶段脚端轨迹采用正弦余弦函数设计,站立阶段采用水平直线函数设计。通过求解运动学逆方程得到角关节运动轨迹。最后,对三脚架步态进行了设计,包括直、横、转三种步态。实验结果验证了机器人步态规划算法的有效性。本文的设计方法易于理解和计算。
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