• DocumentCode
    268104
  • Title

    A New View on Biodynamic Feedthrough Analysis: Unifying the Effects on Forces and Positions

  • Author

    Venrooij, Joost ; Mulder, Max ; Abbink, David A. ; van Paassen, Marinus M. ; van der Helm, Frans C. T. ; Bülthoff, Heinrich H. ; Mulder, Max

  • Author_Institution
    Dept. of Human Perception, Cognition & Action, Max Planck Inst. for Biol. Cybern., Tübingen, Germany
  • Volume
    43
  • Issue
    1
  • fYear
    2013
  • fDate
    Feb. 2013
  • Firstpage
    129
  • Lastpage
    142
  • Abstract
    When performing a manual control task, vehicle accelerations can cause involuntary limb motions, which can result in unintentional control inputs. This phenomenon is called biodynamic feedthrough (BDFT). In the past decades, many studies into BDFT have been performed, but its fundamentals are still only poorly understood. What has become clear, though, is that BDFT is a highly complex process, and its occurrence is influenced by many different factors. A particularly challenging topic in BDFT research is the role of the human operator, which is not only a very complex but also a highly adaptive system. In literature, two different ways of measuring and analyzing BDFT are reported. One considers the transfer of accelerations to involuntary forces applied to the control device (CD); the other considers the transfer of accelerations to involuntary CD deflections or positions. The goal of this paper is to describe an approach to unify these two methods. It will be shown how the results of the two methods relate and how this knowledge may aid in understanding BDFT better as a whole. The approach presented is based on the notion that BDFT dynamics can be described by the combination of two transfer dynamics: 1) the transfer dynamics from body accelerations to involuntary forces and 2) the transfer dynamics from forces to CD deflections. The approach was validated using experimental results.
  • Keywords
    acceleration control; adaptive control; biomechanics; medical control systems; motion control; neurophysiology; position control; vehicles; BDFT dynamics; adaptive system; biodynamic feedthrough analysis; body acceleration; control device; human operator; involuntary CD deflection; involuntary force; limb motion; manual control task; neuromuscular admittance; transfer dynamics; vehicle acceleration; Acceleration; Admittance; Dynamics; Force; Neuromuscular; Vehicle dynamics; Vehicles; Biodynamic feedthrough (BDFT); force disturbance feedthrough (FDFT); manual control; neuromuscular admittance;
  • fLanguage
    English
  • Journal_Title
    Cybernetics, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    2168-2267
  • Type

    jour

  • DOI
    10.1109/TSMCB.2012.2200972
  • Filename
    6225447