Specification of force-controlled actions in the ''Task Frame Formalism'' - A synthesis

被引:148
|
作者
Bruyninckx, H
DeSchutter, J
机构
[1] Department of Mechanical Engineering, Division PMA, Katholieke Universiteit Leuven
来源
关键词
D O I
10.1109/70.508440
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
Autonomous robot tasks involving contacts with the environment must be performed under active force control if the geometric uncertainties in the task models are too large to cope with by means of passive compliance only. In practice, task specification of force-controlled actions is closely linked to the Task Frame Formalism (TFF), also known as the compliance frame formalism. The TFF is a very intuitive and controller independent approach to model a motion constraint, and to specify the desired forces and motions compatible with this constraint, However, it has never been defined clearly and unambiguously, and it cannot cope with all possible constrained motion tasks. This paper provides, for the first time, a formal definition of what makes up a TFF task specification. It gives also a synthesis of which tasks the TFF can cope with, and proposes a generic textual task specification formalism. Finally, it describes an example constrained motion task that the TFF cannot handle.
引用
收藏
页码:581 / 589
页数:9
相关论文
共 50 条
  • [41] Improving nanocutting surface quality by force-controlled rolling
    Xu, Feifei
    Huang, Wen
    Fang, Fengzhou
    Zhang, Xiaodong
    APPLIED NANOSCIENCE, 2021, 11 (03) : 763 - 769
  • [42] Force-Controlled Fluidic Injection into Single Cell Nuclei
    Guillaume-Gentil, Orane
    Potthoff, Eva
    Ossola, Dario
    Doerig, Pablo
    Zambelli, Tomaso
    Vorholt, Julia A.
    SMALL, 2013, 9 (11) : 1904 - 1907
  • [43] Force-Controlled Patch Clamp of Beating Cardiac Cells
    Ossola, Dario
    Amarouch, Mohamed-Yassine
    Behr, Pascal
    Voeroes, Janos
    Abriel, Hugues
    Zambelli, Tomaso
    NANO LETTERS, 2015, 15 (03) : 1743 - 1750
  • [44] An Adaptive Mechatronic Exoskeleton for Force-Controlled Finger Rehabilitation
    Dickmann, Thomas
    Wilhelm, Nikolas J.
    Glowalla, Claudio
    Haddadin, Sami
    van der Smagt, Patrick
    Burgkart, Rainer
    FRONTIERS IN ROBOTICS AND AI, 2021, 8
  • [45] The effect of force-controlled biting on human posture control
    Hellmann, D.
    Stein, T.
    Potthast, W.
    Rammelsberg, P.
    Schindler, H. J.
    Ringhof, S.
    HUMAN MOVEMENT SCIENCE, 2015, 43 : 125 - 137
  • [46] A Compliant, Force-Controlled Active Tail for Miniature Robots
    Raheem, Haider
    Ozbek, Doga
    Ugur, Mustafa
    Ozcan, Onur
    2024 IEEE 7TH INTERNATIONAL CONFERENCE ON SOFT ROBOTICS, ROBOSOFT, 2024, : 55 - 60
  • [47] Towards a force-controlled microgripper for assembling biomedical microdevices
    Carrozza, MC
    Eisinberg, A
    Menciassi, A
    Campolo, D
    Micera, S
    Dario, P
    JOURNAL OF MICROMECHANICS AND MICROENGINEERING, 2000, 10 (02) : 271 - 276
  • [48] Task teaching system for a force-controlled parallel robot using multiple teaching modes with human demonstration data
    Sato, Daisuke
    Kobayashi, Ryosuke
    Kobayashi, Akira
    Uchiyama, Masaru
    2006 IEEE INTERNATIONAL CONFERENCE ON ROBOTICS AND AUTOMATION (ICRA), VOLS 1-10, 2006, : 3960 - +
  • [49] Hierarchical Inequality Task Specification for Indirect Force Controlled Robots using Quadratic Programming
    Lutscher, Ewald
    Cheng, Gordon
    2014 IEEE/RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS (IROS 2014), 2014, : 4722 - 4727
  • [50] Magnified Force Sensory Substitution for Telemanipulation via Force-Controlled Skin Deformation
    Kamikawa, Yasuhisa
    Enayati, Nima
    Okamura, Allison M.
    2018 IEEE INTERNATIONAL CONFERENCE ON ROBOTICS AND AUTOMATION (ICRA), 2018, : 4142 - 4148