Trajectory planning and control for hopping robot at the stance phase

Robot hop provide an effective solution to overcome obstacles and perform locomotion in a rough and unstructured terrain. In this paper, a method is proposed for trajectory planning of hopping robots utilizing a hopping model with three centers of mass (CoMs). Firstly, a planar robot model with arti...

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Main Authors: Qiang Wei, Minzhou Luo, Jianghai Zhao, Fayong Guo
Format: Conference Proceeding
Language:English
Subjects:
fuzzy control
hop
stance phase
trajectory planning
ZMP tracking
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creator Qiang Wei
Minzhou Luo
Jianghai Zhao
Fayong Guo
description Robot hop provide an effective solution to overcome obstacles and perform locomotion in a rough and unstructured terrain. In this paper, a method is proposed for trajectory planning of hopping robots utilizing a hopping model with three centers of mass (CoMs). Firstly, a planar robot model with articulated legs is presented, and corresponding dynamics are derived. Secondly, we discuss a ZMP (Zero moment point)-based trajectory planning for hopping robots at the stance phase. Thirdly, a fuzzy control system is developed to track the generated ZMP trajectory and realize stable hopping motion. The purpose of this study is to provide an approach to generate hopping pattern at stance phase and control it. The effectiveness of the proposed model and control scheme is verified through the simulation and experiments.
doi_str_mv 10.1109/ICMA.2017.8016057
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subjects fuzzy control
hop
stance phase
trajectory planning
ZMP tracking
title Trajectory planning and control for hopping robot at the stance phase
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