• DocumentCode
    18064
  • Title

    Toward Developing a Computational Model for Bipedal Push Recovery–A Brief

  • Author

    Semwal, Vijay Bhaskar ; Nandi, Gora Chand

  • Author_Institution
    Robot. & Artificial Intell., Indian Inst. of Inf. Technol. Allahabad, Allahabad, India
  • Volume
    15
  • Issue
    4
  • fYear
    2015
  • fDate
    Apr-15
  • Firstpage
    2021
  • Lastpage
    2022
  • Abstract
    The human being can negotiate with external push up to certain extent reactively. Grown up persons have better push recovery capability than kids and also the professional wrestlers acquire better push recovery capability than normal human being. The acquired push recovery capability, therefore, is based on learning. However, the mechanism of learning is not known to us. Researchers around the world are trying to explore this mystery through developing various models and implementing them on various humanoid robots. All the models based on conventional mechanics and controls have inherent limitations. We believe appropriate computational model based on learning will be able to effectively address this issue. Accordingly, we have collected extensively humanoid push recovery data using our innovative idea of exploiting the accelerometer sensor of smart phone. Through our experiments, we have studied the human push recovery by fusing data at feature level using physics toolbar accelerometer of android interface kit. The subjects for the experiments were selected both as right handed and left handed. Pushes were induced from the behind with close eyes to observe the motor action as well as with open eyes to observe learning-based reactive behaviors. A learning vector quantization-based classifier has been developed to identify the coordination between various push and hip and knee joints.
  • Keywords
    Android (operating system); control engineering computing; humanoid robots; learning (artificial intelligence); legged locomotion; pattern classification; robot kinematics; sensor fusion; vector quantisation; android interface kit; bipedal push recovery; computational model; conventional mechanics; data fusion; extensively humanoid push recovery data; external push; feature level; grown up persons; hip joints; human push recovery; humanoid robots; kids; knee joints; learning vector quantization-based classifier; learning-based reactive behaviors; motor action; normal human being; physics toolbar accelerometer; professional wrestlers; push recovery capability; Educational institutions; Hip; Joints; Knee; Robot kinematics; Sensors; HMCD (Human Motion Capture Device); HMCD (Human Motion capture Device); Inverse Kinematics; LVQ; Push Recovery; Savitzky Golay Filter (Sgolay); Savitzky Golay filter (Sgolay); inverse kinematics; push recovery;
  • fLanguage
    English
  • Journal_Title
    Sensors Journal, IEEE
  • Publisher
    ieee
  • ISSN
    1530-437X
  • Type

    jour

  • DOI
    10.1109/JSEN.2015.2389525
  • Filename
    7009974