Title
A mapping approach for real time imitation of human movements by a 22 DOF humanoid
Date Issued
2018
Access level
restricted access
Resource Type
conference paper
Author(s)
Cornejo-Arismendi V.A.
Publisher(s)
Institute of Electrical and Electronics Engineers Inc.
Abstract
The main way of displacement of a humanoid robot is by walking, humanoid robots have a basic architecture of 22 DOF which are the minimum necessary to replicate human movements. A motion capture system stores the information of a human being from static points in a human body, the data used will be cycles of gait of a human being. The proposed technique transforms the data of a capture system and transforms them into angles in an architecture of a humanoid robot of 22 DOF. For this purpose it uses key points of a capture system and makes a mapping from the torso to then proceed with its upper and lower limbs. Tests were performed on an author's own simulator and also on the V-REP simulator using the architecture of the Poopy robot. The results show a visually imperceptibly mathematical error in the simulator, but numerically measurable, that lies in the elimination of an axial axis located at the waist. Tests were performed with the data of a woman, a man and a child, being the woman who has the greatest error for having a more pronounced hip movement in the gait. This proposed research opens the door for future research that requires a mapping of a capture system to be replicated in a humanoid robot of 22 DOF, being its use very versatile and expandable to dynamic solutions of balance and tightness. © 2018 IEEE.
Start page
426
End page
431
Number
1
Language
English
Scopus EID
2-s2.0-85061326997
Source
Proceedings - 15th Latin American Robotics Symposium, 6th Brazilian Robotics Symposium and 9th Workshop on Robotics in Education, LARS/SBR/WRE 2018
ISBN of the container
9781538677612
Conference
15th Latin American Robotics Symposium, 6th Brazilian Robotics Symposium and 9th Workshop on Robotics in Education, LARS/SBR/WRE 2018
Sponsor(s)
VI. ACKNOWLEDGMENT This work was supported by grant 234-2015-FONDECYT (Master Program) from Cienciactiva of the National Council for Science,Technology and Technological Innovation (CONCYTEC-PERU).
Sources of information: Directorio de Producción Científica