Intercepting moving objects during self-motion

被引:49
|
作者
Lenoir, M [1 ]
Musch, E [1 ]
Janssens, M [1 ]
Thiery, E [1 ]
Uyttenhove, J [1 ]
机构
[1] Univ Ghent, Dept Movement & Sport Sci, B-9000 Ghent, Belgium
关键词
angular constancy; interception strategy; interceptive timing; timing;
D O I
10.1080/00222899909601891
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
It is generally assumed that in catching a fly ball, an efficient strategy for dealing with the horizontal component of the ball's trajectory is for the observer to keep the angular position of the ball constant with respect to his head. That strategy is called the constant bearing angle or CBA strategy. Maintenance of angular constancy results in the simultaneous arrival of both observer and ball at the landing spot. The authors analyzed the approach behavior of 26 subjects in a ball-interception task with straight paths for both the subjects and the ball. Subjects moved at a velocity that maintained a close-to-constant horizontal angular position of the ball with respect to the end effector throughout the approach phase rather than a constant bearing angle with respect to their head. Velocity adaptations occurred as a function of the changes in the angular velocity of the ball in such a way that a positive or negative angular velocity was canceled. Thus, an actor following the CBA strategy does not need to know where and when the ball will arrive (i.e., a predictive strategy), because reliance on the CBA strategy ensures that he will make the appropriate adaptations that enable him to arrive at the right place in the right time.
引用
收藏
页码:55 / 67
页数:13
相关论文
共 50 条
  • [31] Considerations of self-motion in motion saliency
    Hiratani, Akinori
    Nakashima, Ryoichi
    Matsumiya, Kazumichi
    Kuriki, Ichiro
    Shioiri, Satoshi
    2013 SECOND IAPR ASIAN CONFERENCE ON PATTERN RECOGNITION (ACPR 2013), 2013, : 783 - 787
  • [32] Self-propelled slender objects can measure flow signals net of self-motion
    Cavaiola, M.
    Mazzino, A.
    PHYSICS OF FLUIDS, 2021, 33 (05)
  • [33] A computational model of motion sickness dynamics during passive self-motion in the dark
    Allred, Aaron R.
    Clark, Torin K.
    EXPERIMENTAL BRAIN RESEARCH, 2023, 241 (09) : 2311 - 2332
  • [34] A computational model of motion sickness dynamics during passive self-motion in the dark
    Allred, Aaron R.
    Clark, Torin K.
    EXPERIMENTAL BRAIN RESEARCH, 2024, 242 (05) : 1127 - 1148
  • [35] The effect of linearly moving sound image on perceived self-motion with vestibular information
    Sakamoto, Shuichi
    Suzuki, Fumihiko
    Suzuki, Yoiti
    Gyoba, Jiro
    ACOUSTICAL SCIENCE AND TECHNOLOGY, 2008, 29 (06) : 391 - 393
  • [36] A role of cutaneous inputs in self-motion perception (1): Is perceived self-motion equal to an actual motion?
    Murata, Kayoko
    Komatsu, Hidemi
    Nakano, Yasushi
    Ichihara, Shigeru
    Ishihara, Masami
    Masuda, Naoe
    PERCEPTION, 2015, 44 : 344 - 345
  • [37] Prior visual motion affects self-motion judgments during eye movements
    Crowell, JA
    Shenoy, KV
    Andersen, RA
    INVESTIGATIVE OPHTHALMOLOGY & VISUAL SCIENCE, 1999, 40 (04) : S800 - S800
  • [38] Stereo visual cues help object motion perception during self-motion
    Niehorster, D. C.
    Li, L.
    PERCEPTION, 2012, 41 : 79 - 79
  • [39] Torsional eye movements are facilitated during perception of self-motion
    Thilo, KV
    Probst, T
    Bronstein, AM
    Ito, Y
    Gresty, MA
    EXPERIMENTAL BRAIN RESEARCH, 1999, 126 (04) : 495 - 500
  • [40] Object speed perception during lateral visual self-motion
    Björn Jörges
    Laurence R. Harris
    Attention, Perception, & Psychophysics, 2022, 84 : 25 - 46