Signal Processing and Application of Six-axis Force/Torque Sensor Integrated in Humanoid Robot Foot

被引:0
作者
Baoyuan Wu
Qingquan Yan
Jianfei Luo
Zhongcheng Wu
机构
[1] Chinese Academy of Sciences,Institute of Intelligent Machines
[2] Chinese Academy of Science,High Magnetic Field Laboratory
来源
Journal of Signal Processing Systems | 2014年 / 74卷
关键词
Signal Processing; FIR Filtering; Six-axis Force/Torque Sensor; Humanoid Robot;
D O I
暂无
中图分类号
学科分类号
摘要
Six-axis force/torque sensor (F/T sensor) that can detect three orthogonal forces and torques has been extensively adopted in humanoid robot foot for stable control. Due to the F/T sensors being seriously influenced by the electromagnetic interference from ankle generator, signal stability of F/T sensor is still one of the main influencing factors for accurately dynamical and stable control. Though the problem with influencing electromagnetic noise can be solved generally and partially by shielding of the sensor and wires, this traditional method will to some extend face implementation difficulty induced by special mounting space and application environment especially in humanoid robot ankle. Therefore, the research on the output signal stability and precision of the F/T sensors has still been one of the most essential subjects for humanoid robot dynamic equilibrium control. In this paper, some various signal processing methods have been adopted and analyzed comparatively with the aim at the output signal anti-interference processing of F/T sensors. And the filtering effect and its feasibility were verified experimentally in the dynamic walking motion of humanoid robot platform BHR-2.
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页码:263 / 271
页数:8
相关论文
共 28 条
[1]  
Buschmann T(2009)Humanoid robot lola: Design and walking control Physiology 103 141-148
[2]  
Lohmeier S(1972)On the stability of anthropomorphic systems Mathematical Biosciences 15 1-37
[3]  
Ulbrich H(2007)Honda humanoid robots development Phil. Trans. R. Soc. A 365 11-19
[4]  
Vukobratovic M(2004)Humanoid robotics platforms developed in HRP Robotics and Autonomous Systems 48 165-175
[5]  
Stepanenko J(2012)ZMP based neural network inspired humanoid robot control Nonlinear Dynamics 67 793-806
[6]  
Hirose M(2012)Towards an improvement of the SABIAN humanoid robot: From design to optimization Mechanical Engineering and Automation 2 80-84
[7]  
Ogawa K(2012)Walking control method of humanoid robot based on FSR sensors and inverted pendulum model Advances in Autonomous Robotics 7429 402-413
[8]  
Hirohisa H(2013)A real-time center of gravity trajectory generation of a biped humanoid under variable reference ZMP trajectory Applied Mechanics and Materials 284-287 1734-1738
[9]  
Fumio K(2013)Overload protection mechanism for 6-axis force/torque sensor, romansy 19 – robot design Dynamics and Control 544 383-390
[10]  
Kenji K(2012)Development of an integrated perceptual foot system for humanoid robots Robotics and Automation 27 217-228