The Magnocellular visual pathway and the flash-lag illusion

被引:7
|
作者
Chappell, Mark [1 ,2 ]
Mullen, Kathy T. [3 ]
机构
[1] Griffith Univ, Appl Cognit Neurosci Res Unit, Griffith Hlth Inst, Mt Gravatt, Qld 4122, Australia
[2] Griffith Univ, Sch Psychol, Mt Gravatt, Qld 4122, Australia
[3] McGill Univ, Dept Ophthalmol, Montreal, PQ H3A 2T5, Canada
来源
JOURNAL OF VISION | 2010年 / 10卷 / 11期
关键词
motion; Magnocellular pathway; flash-lag; motion-biasing; position; PERCEIVED POSITION; MOTION; ATTENTION; EXTRAPOLATION; SIGNALS; COLOR; DEPENDENCE; ADVANTAGE; NEURONS; TARGETS;
D O I
10.1167/10.11.24
中图分类号
R77 [眼科学];
学科分类号
100212 ;
摘要
Determining how the visual system locates moving stimuli continues to be an experimental and theoretical challenge. By making a moving visual stimulus equiluminant with its background, and immersing it in luminance noise, the spatial lead it normal enjoys over a flashed stimulus (the flash-lag illusion) was completely eliminated (the illusion was actually reversed for 6 out of 11 participants). As this manipulation is typically used to reduce Magnocellular (M) visual pathway processing, this is strong evidence that processing in this pathway advances the moving stimulus' perceived position. However, when the flashed stimulus was also made equiluminant in luminance noise, the illusion reappeared, indicating that M pathway processing contributed to its perception too. The presence of the illusion when both stimuli were equiluminant in luminance noise indicates that the illusion can be generated in the absence of M cell activation. To explicate the result with moving stimuli, we displayed two adjacent moving stimuli, one luminance-modulated, and the other equiluminant in noise. The latter was perceived to significantly lag the former (an 'M-P-Hess' illusion), and 39% of the difference in flash-lag illusions, with comparable moving stimulus contrasts, could be accounted for by this illusion.
引用
收藏
页码:1 / 10
页数:10
相关论文
共 50 条
  • [21] Motion signals bias localization judgments: A unified explanation for the flash-lag, flash-drag, flash-jump, and Frohlich illusions
    Eagleman, David M.
    Sejnowski, Terrence J.
    JOURNAL OF VISION, 2007, 7 (04):
  • [22] A flash-lag effect in random motion
    Murakami, I
    VISION RESEARCH, 2001, 41 (24) : 3101 - 3119
  • [23] Observer's control of the moving stimulus increases the flash-lag effect
    Scocchia, Lisa
    Grosso, Rossana Actis
    de'Sperati, Claudio
    Stucchi, Natale
    Baud-Bovy, Gabriel
    VISION RESEARCH, 2009, 49 (19) : 2363 - 2370
  • [24] Flash-lag effects in biological motion interact with body orientation and action familiarity
    Su, Junzhu
    Lu, Hongjing
    VISION RESEARCH, 2017, 140 : 13 - 24
  • [25] Object motion continuity and the flash-lag effect
    Au, Ricky K. C.
    Watanabe, Katsumi
    VISION RESEARCH, 2013, 92 : 19 - 25
  • [26] Measuring attention using flash-lag effect
    Shioiri, Satoshi
    Yamamoto, Ken
    Oshida, Hiroki
    Matsubara, Kazuya
    Yaguchi, Hirohisa
    JOURNAL OF VISION, 2010, 10 (10):
  • [27] Early and late evoked brain responses differentially reflect feature encoding and perception in the flash-lag illusion
    Keil, Julian
    Senkowski, Daniel
    Moran, James K.
    NEUROIMAGE, 2022, 246
  • [28] Saccades reveal that allocentric coding of the moving object causes mislocalization in the flash-lag effect
    Beckr, Stefanie I.
    Ansorge, Ulrich
    Turatto, Massimo
    ATTENTION PERCEPTION & PSYCHOPHYSICS, 2009, 71 (06) : 1313 - 1324
  • [29] Distinct mechanisms of temporal binding in generalized and cross-modal flash-lag effects
    Hayashi, Ryusuke
    Murakami, Ikuya
    SCIENTIFIC REPORTS, 2019, 9 (1)
  • [30] The role of the magnocellular visual pathway in the attentional blink
    Stuart, Geoffrey W.
    Lambeth, Sandra E.
    Day, Ross H.
    Gould, Ian C.
    Castles, Anne E.
    BRAIN AND COGNITION, 2012, 78 (02) : 99 - 104