• DocumentCode
    710712
  • Title

    A design approach for incorporating task coordination for human-robot-coexistence within assembly systems

  • Author

    Shen, Y. ; Reinhart, G. ; Tseng, M.M.

  • Author_Institution
    Inst. for Ind. Manage. & Machine Tools, Tech. Univ. Munich, Augsburg/Garching, Germany
  • fYear
    2015
  • fDate
    13-16 April 2015
  • Firstpage
    426
  • Lastpage
    431
  • Abstract
    Current developments in globalized markets lead to an increasing need for flexible and agile production systems. Especially within automated assembly stations, the human worker still embodies a major role, essentially his adaptability and his problem solving skills in unplanned scenarios, that need to be coordinated in an efficient and safe way. Nevertheless, the physical human safety within human-robot coexistence represents the key requirement for system productivity and acceptance. Along with an optimized deployment of both robotic and human skills, workspace sharing concepts based on human-robot-coexistence enable ergonomic workload distributions. As a result, the establishment of human-centered workplaces is facilitated. This paper presents a framework and major design principles for workspace-sharing concepts incorporating task identification and coordination aspects for assembly systems. The methodology introduced comprises a generic requirement analysis and functional specifications that lead to a generalized solutions space based on a probabilistic multi-agent-system that catches the intricate system interferences between process, product and human worker.
  • Keywords
    agile manufacturing; design engineering; ergonomics; human-robot interaction; multi-robot systems; robotic assembly; agile production systems; assembly systems; automated assembly stations; design approach; ergonomic workload distributions; flexible production systems; globalized markets; human skills; human worker; human-centered workplaces; human-robot coexistence; human-robot-coexistence; intricate system interferences; physical human safety; probabilistic multiagent-system; problem solving skills; robotic skills; system productivity; task coordination; task coordination aspects; task identification; unplanned scenarios; workspace sharing concepts; workspace-sharing concepts; Assembly; Hidden Markov models; Robot kinematics; Robot sensing systems; Safety; human-robot-coexistence; hybrid assembly system; task coordination;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Systems Conference (SysCon), 2015 9th Annual IEEE International
  • Conference_Location
    Vancouver, BC
  • Type

    conf

  • DOI
    10.1109/SYSCON.2015.7116788
  • Filename
    7116788