Distinct position assignment mechanisms revealed by cross-order motion

Vision Research

Volumn 48, Issue 21, 2008, Pages 2260-2268

  Pavan, Andrea ^a   Mather, George ^b  

^a UNIVERSITY OF PADOVA   (Italy)

^b UNIVERSITY OF SUSSEX   (United Kingdom)

Author keywords

Cross order motion; First order motion; Motion induced position shift; Position assignment; Second order motion

Indexed keywords

ARTICLE; HUMAN; HUMAN EXPERIMENT; HYPOTHESIS; MOVEMENT PERCEPTION; NEUROMODULATION; NORMAL HUMAN; PRIORITY JOURNAL; SPATIAL FREQUENCY DISCRIMINATION; VISUAL STIMULATION;

CONTRAST SENSITIVITY; HUMANS; MALE; MOTION PERCEPTION; PATTERN RECOGNITION, VISUAL; PHOTIC STIMULATION; PSYCHOMETRICS; PSYCHOPHYSICS; SENSORY THRESHOLDS;

EID: 51649103244     PISSN: 00426989     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.visres.2008.07.001     Document Type: Article

References (74)

1. Albright T.D. Form-cue invariant motion processing in primate visual cortex. Science 255 (1992) 1141-1143
2. Allen H.A., Hess R.F., Mansouri B., and Dakin S.C. Integration of first- and second-order orientation. Journal of the Optical Society of America. A, Optics, Image Science, and Vision 20 6 (2003) 974-986
3. Anstis S.M., and Cavanagh P. A minimum motion technique for judging equiluminance. In: Mollon J., and Sharpe R.T. (Eds). Colour vision: Physiology and psychophysics (1983), London Academic Press 155-166
4. Arnold D.H., and Johnston A. Sub-threshold motion influences apparent position. Journal of Vision 5 (2005) 202a
5. Ashida H., Lingnau A., Wall M.B., and Smith A.T. FMRI adaptation reveals separate mechanisms for first-order and second-order motion. Journal of Neurophysiology 97 2 (2007) 1319-1325
6. Bachmann T., and Poder E. Change in feature space is not necessary for the flash-lag effect. Vision Research 41 9 (2001) 1103-1106
7. Baldo M.V., Ranvaud R.D., and Morya E. Flag errors in soccer games: The flash-lag effect brought to real life. Perception 31 10 (2002) 1205-1210
8. Bressler D.W., and Whitney D. Second-order motion shifts perceived position. Vision Research 46 6-7 (2006) 1120-1128
9. Burr D. Motion smear. Nature 284 5752 (1980) 164-165
10. Burr D.C., and Ross J. Contrast sensitivity at high velocities. Vision Research 22 4 (1982) 479-484
11. Burr D.C., and Ross J. Direct evidence that "speedlines" influence motion mechanisms. Journal of Neuroscience 22 19 (2002) 8661-8664
12. Burr D.C., Ross J., and Morrone M.C. Smooth and sampled motion. Vision Research 26 4 (1986) 643-652
13. Campana G., Cowey A., and Walsh V. Priming of motion direction and area V5/MT: A test of perceptual memory. Cerebral Cortex 12 6 (2002) 663-669
14. Campana G., Pavan A., and Casco C. Priming of first- and second-order motion: Mechanisms and neural substrates. Neuropsychologia 46 2 (2008) 393-398
15. Cavanagh P., and Mather G. Motion: The long and short of it. Spatial Vision 4 2-3 (1989) 103-129
16. Chung S.T., Patel S.S., Bedell H.E., and Yilmaz O. Spatial and temporal properties of the illusory motion-induced position shift for drifting stimuli. Vision Research 47 2 (2007) 231-243
17. Cowey A., Campana G., Walsh V., and Vaina L.M. The role of human extra-striate visual areas V5/MT and V2/V3 in the perception of the direction of global motion: A transcranial magnetic stimulation study. Experimental Brain Research 171 4 (2006) 558-562
18. De Valois R.L., and De Valois K.K. Vernier acuity with stationary moving Gabors. Vision Research 31 (1991) 1619-1626
19. Derrington A.M., and Badcock D.R. Separate detectors for simple and complex grating patterns?. Vision Research 25 12 (1985) 1869-1878
20. Durant S., and Johnston A. Temporal dependence of local motion induced shifts in perceived position. Vision Research 44 4 (2004) 357-366
21. Edwards M., and Badcock D.R. Global motion perception: No interaction between the first- and second-order motion pathways. Vision Research 35 18 (1995) 2589-2602
22. Edwards M., and Badcock D.R. Motion distorts perceived depth. Vision Research 43 17 (2003) 1799-1804
23. Ellemberg D., Allen H.A., and Hess R.F. Investigating local network interactions underlying first- and second-order processing. Vision Research 44 15 (2004) 1787-1797
24. Fahle M., and Poggio T. Visual hyperacuity: Spatiotemporal interpolation in human vision. Proceedings of the Royal Society of London. Series B. Biological Sciences 213 1193 (1981) 451-477
25. Fang F., and He S. Strong influence of test patterns on the perception of motion aftereffect and position. Journal of Vision 4 7 (2004) 637-642
26. Field D.J., Hayes A., and Hess R.F. Contour integration by the human visual system: Evidence for a local association field. Vision Research 33 2 (1993) 173-193
27. Finney D.J. Probit analysis (1971), Cambridge University Press, Cambridge
28. Freyd J.J., and Finke R.A. Representational momentum. Journal of Experimental Psychology: Learning, Memory, and Cognition 10 (1984) 126-132
29. Freyd J.J., and Finke R.A. A velocity effect for representational momentum. Bulletin of the Psychonomic Society 23 (1985) 443-446
30. Fu Y.X., Shen Y., Gao H., and Dan Y. Asymmetry in visual cortical circuits underlying motion-induced perceptual mislocalization. Journal of Neuroscience 24 9 (2004) 2165-2171
31. Geisler W.S. Motion streaks provide a spatial code for motion direction. Nature 400 6739 (1999) 65-69
32. Harp T.D., Bressler D.W., and Whitney D. Position shifts following crowded second-order motion adaptation reveal processing of local and global motion without awareness. Journal of Vision 7 2 (2007) 1-13
33. Huang P.-C., and Hess R.F. Collinear facilitation: Effect of additive and multiplicative external noise. Vision Research 47 (2007) 3108-3119
34. Ichikawa M., and Masakura Y. Manual control of the visual stimulus reduces the flash-lag effect. Vision Research 46 14 (2006) 2192-2203
35. Ledgeway T., and Smith A.T. Evidence for separate motion-detecting mechanisms for first- and second-order motion in human vision. Vision Research 34 20 (1994) 2727-2740
36. Levitt H. Transformed up-down methods in psychoacoustics. The Journal of the Acoustical Society of America 49 2 (1971) 467-477
37. Lu Z.L., and Sperling G. The functional architecture of human visual motion perception. Vision Research 35 19 (1995) 2697-2722
38. Lu Z.L., and Sperling G. Three-systems theory of human visual motion perception: Review and update. Journal of the Optical Society of America. A, Optics, Image Science, and Vision 18 9 (2001) 2331-2370
39. Mather G. First-order and second-order visual processes in the perception of motion and tilt. Vision Research 31 1 (1991) 161-167
40. Mather G., Verstraten F., and Anstis S. The motion aftereffect: A modern perspective (1998), MIT Press, Cambridge, MA
41. McCarthy J.E. Directional adaptation effects with contrast modulated stimuli. Vision Research 33 18 (1993) 2653-2662
42. McGraw P.V., Levi D.M., and Whitaker D. Spatial characteristics of the second-order visual pathway revealed by positional adaptation. Nature Neuroscience 2 5 (1999) 479-484
43. McGraw P.V., Walsh V., and Barrett B.T. Motion-sensitive neurones in V5/MT modulate perceived spatial position. Current Biology 14 12 (2004) 1090-1093
44. McGraw P.V., Whitaker D., Skillen J., and Chung S.T. Motion adaptation distorts perceived visual position. Current Biology 12 23 (2002) 2042-2047
45. McKee S.P., Klein S.A., and Teller D.Y. Statistical properties of forced-choice psychometric functions: Implications of probit analysis. Perception & Psychophysics 37 4 (1985) 286-298
46. Mussap A.J., and Prins N. On the perceived location of global motion. Vision Research 42 6 (2002) 761-769
47. Nijhawan R. Motion extrapolation in catching. Nature 370 6487 (1994) 256-257
48. Nijhawan R. Neural delays, visual motion and the flash-lag effect. Trends in Cognitive Sciences 6 9 (2002) 387
49. Nishida S. Motion-based analysis of spatial patterns by the human visual system. Current Biology 14 10 (2004) 830-839
50. Nishida S., Edwards M., and Sato T. Simultaneous motion contrast across space: Involvement of second-order motion?. Vision Research 37 2 (1997) 199-214
51. Nishida S., and Johnston A. Influence of motion signals on the perceived position of spatial pattern. Nature 397 6720 (1999) 610-612
52. Nishida S., and Sato T. Motion aftereffect with flickering test patterns reveals higher stages of motion processing. Vision Research 35 4 (1995) 477-490
53. O'Keefe L.P., and Movshon J.A. Processing of first- and second-order motion signals by neurons in area MT of the macaque monkey. Visual Neuroscience 15 (1998) 305-317
54. Ramachandran V.S., and Anstis S.M. Illusory displacement of equiluminous kinetic edges. Perception 19 5 (1990) 611-616
55. Seiffert A.E., and Cavanagh P. Position displacement, not velocity, is the cue to motion detection of second-order stimuli. Vision Research 38 22 (1998) 3569-3582
56. Shim W.M., and Cavanagh P. The motion-induced position shift depends on the perceived direction of bistable quartet motion. Vision Research 44 20 (2004) 2393-2401
57. Snowden R.J. Shifts in perceived position following adaptation to visual motion. Current Biology 8 24 (1998) 1343-1345
58. Sundberg K.A., Fallah M., and Reynolds J.H. A motion-dependent distortion of retinotopy in area V4. Neuron 49 3 (2006) 447-457
59. Thornton I.M., and Hubbard T.L. Representational momentum: New findings, new directions (2002), Taylor & Francis, London
60. Vaina L.M., Cowey A., and Kennedy D. Perception of first- and second-order motion: Separable neurological mechanisms?. Human Brain Mapping 7 1 (1999) 67-77
61. Vaina L.M., Makris N., Kennedy D., and Cowey A. The selective impairment of the perception of first-order motion by unilateral cortical brain damage. Visual Neuroscience 15 2 (1998) 333-348
62. Vaina L.M., and Soloviev S. First-order and second-order motion: Neurological evidence for neuroanatomically distinct systems. Progress in Brain Research 144 (2004) 197-212
63. Watanabe K. The motion-induced position shift depends on the visual awareness of motion. Vision Research 45 19 (2005) 2580-2586
64. Whitaker D., McGraw P.V., and Levi D.M. The influence of adaptation on perceived visual location. Vision Research 37 16 (1997) 2207-2216
65. Whitaker D., McGraw P.V., and Pearson S. Non-veridical size perception of expanding and contracting objects. Vision Research 39 18 (1999) 2999-3009
66. Whitney D. The influence of visual motion on perceived position. Trends in Cognitive Sciences 6 5 (2002) 211-216
67. Whitney D. Motion distorts perceived position without awareness of motion. Current Biology 15 9 (2005) R324-R326
68. Whitney D. Contribution of bottom-up and top-down motion processes to perceived position. Journal of Experimental Psychology. Human Perception and Performance 32 6 (2006) 1380-1397
69. Whitney D., and Cavanagh P. Motion distorts visual space: Shifting the perceived position of remote stationary objects. Nature Neuroscience 3 9 (2000) 954-959
70. Whitney D., and Cavanagh P. Motion adaptation shifts apparent position without the motion aftereffect. Perception & Psychophysics 65 7 (2003) 1011-1018
71. Whitney D., Goltz H.C., Thomas C.G., Gati J.S., Menon R.S., and Goodale M.A. Flexible retinotopy: Motion-dependent position coding in the visual cortex. Science 302 5646 (2003) 878-881
72. Whitney D., and Murakami I. Latency difference, not spatial extrapolation. Nature Neuroscience 1 8 (1998) 656-657
73. Yokoi K., and Watanabe K. Distortion of positional representation of visual objects by motion signals. Journal of Vision 5 (2005) 206a
74. Zanker J.M., Quenzer T., and Fahle M. Perceptual deformation induced by visual motion. Die Naturwissenschaften 88 3 (2001) 129-132