Constructive perception of self-motion

Journal of Vestibular Research: Equilibrium and Orientation

Volumn 18, Issue 5-6, 2008, Pages 249-266

  Holly, Jan E ^a   McCollum, Gin ^b  

^a Health Services and Department of Biology   (United States)

^b LEGACY RESEARCH   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

ACCELERATION; ACCURACY; AUDITORY STIMULATION; BEHAVIOR; CONSCIOUSNESS; ENERGY; FOOT; GRAVITY; HEAD; HUMAN; KINETICS; KNEE; LINEAR SYSTEM; LINGUISTICS; LOCOMOTION; MATHEMATICAL ANALYSIS; MOTION; MOVEMENT PERCEPTION; NERVOUS SYSTEM; OSCILLATION; PRIORITY JOURNAL; PROPRIOCEPTION; REVIEW; ROTATION; SENSORIMOTOR FUNCTION; SENSORY RECEPTOR; STANDING; VELOCITY; VISION; VISUAL STIMULATION; WALKING;

GRAVITATION; HUMANS; MOTION PERCEPTION; OPTICAL ILLUSIONS; ROTATION; VISUAL PERCEPTION;

EID: 67650813165     PISSN: 09574271     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Review

References (85)

1. A.J. Benson, Spatial Disorientation: Common Illnesses, in: Aviation Medicine, E. Ernsting, ed., London: Tri-Med, 1978, pp. 434-467.
2. R.J.V. Bertin and A. Berthoz, Visuo-Vestibular Interaction in the Reconstruction of Travelled Trajectories, Experimental Brain Research 154(1) (2004), 11-21.
3. R.J.V. Bertin and I. Israël, Optic-flow-based Perception of Two-Dimensional Trajectories and the Effects of a Single Landmark, Perception 34(4) (2005), 453-475.
4. R.J.V. Bertin, I. Israël and M. Lappe, Perception of Two-Dimensional, Simulated Ego-Motion Trajectories from Optic Flow, Vision Research 40 (2000), 2951-2971.
5. F.O. Black and L.M. Nashner, Vestibulospinal Control Differs in Patients with Reduced versus Distorted Vestibular Function, Acta Otolaryngologica S406 (1984), 110-114.
6. F.O. Black, C. Shupert, F.B. Horak and L.M. Nashner, Abnormal Postural Control Associated with Peripheral Vestibular Disorders, in Progress in Brain Research: Vestibulospinal Control, of Posture and Movement, O. Pompeiano and J. Allum, eds, Amsterdam: Elsevier, 1988, pp. 152-164.
7. W. Bles and T.S. Kapteyn, Circular Vection and Human Posture I. Does the Proprioceptive System Play a Role? Agressologie 18(6) (1977), 325-328.
8. J. Borah, L.R. Young and R.E. Curry, Optimal estimator model for human spatial orientation, Ann NY Acad Sci 545 (1988), 51-73.
9. J.E. Bos and W. Bles, Theoretical considerations on canalotolith interaction and an observer model, Biol Cybern 86 (2002), 191-207. (Pubitemid 135689571)
10. T. Brandt, J. Dichgans and E. Koenig, Perception of Selfrotation (Circular Vection) Induced by Optokinetic Stimuli, Pflugers Archiv S332 (1972), R98.
11. D.H. Brainard, P. Long̀ere, P.B. Delahunt, W.T. Freeman, J.M. Kraft and B. Xiao, Bayesian Model of Human Color Constancy, Journal of Vision 6 (2006), 1267-1281.
12. J.V. Cohn, P. DiZio and J.R. Lackner, Reaching during Virtual Rotation: Context Specific Compensations for Expected Coriolis Forces, Journal of Neurophysiology 83 (2000), 3230-3240.
13. A.R. Damasio, Time-Locked Multiregional Retroactivation: A Systems-Level Proposal for the Neural Substrates of Recall and Recognition, Cognition 33(1-2) (1989), 25-62.
14. P. Denise, C. Darlot, J. Droulez, B. Cohen and A. Berthoz, Motion Perceptions Induced by Off-Vertical Axis Rotation (OVAR) at Small Angles of Tilt, Experimental Brain Research 73(1) (1988), 106.
15. P.A. DiZio and J.R. Lackner, Perceived Orientation, Motion, and Configuration of the Body during Viewing of an Off-vertical, Rotating Surface, Perception and Psychophysics 39(1) (1986), 39-46.
16. J. Droulez and C. Darlot, The geometric and dynamic implications of the coherence constraints in three-dimensional sensorimotor interactions, in: Attention and Performance, M. Jeannerod, ed., Lawrence Erlbaum, Hillsdale, NJ, 1989, pp. 495-526.
17. M.O. Ernst, Learning to Integrate Arbitrary Signals from Vision and Touch, Journal of Vision 7(5) (2007), 1-14.
18. I.Z. Foster, D.A. Hanes, N.H. Barmack and G. McCollum, Spatial Symmetries in Vestibular Projections to the Uvula-Nodulus, Biological Cybernetics 96(4) (2007), 439-453.
19. S. Glasauer, Linear Acceleration Perception: Frequency Dependence of the Hilltop Illusion, Acta Otolaryngologica (Stockholm) S520 (1995), 37-40.
20. S. Glasauer and D.M. Merfeld, Modelling three-dimensional vestibular responses during complex motion stimulation, in: Three-Dimensional Kinematics of Eye, Head and Limb Movements, M. Fetter, T. Haslwanter, H. Misslich and D. Tweed, eds, Harwood, Reading, 1997, pp. 387-398.
21. B.E. Goldstein, Sensation and Perception, (6th ed.), Australia: Wadsworth-Thomson Learning, 2002.
22. M. Golubitsky and I. Stewart, The Symmetry Perspective: From Equilibrium to Chaos in Phase Space and Physical Space, Basel: Birkhauser Verlag, 2002.
23. I.E. Gordon, Theories of Visual Perception, Psychology Press, Hove and New York, 2004.
24. M.S.A. Graziano and D.F. Cooke, Parieto-Frontal Interactions, Personal Space, and Defensive Behavior, Neuropsychologia 44 (2006), 2621-2635.
25. F.E. Guedry, Psychophysics of Vestibular Sensation, in: Handbook of Sensory Physiology, (Vol. VI), H.H. Kornhuber. ed., New York: Springer-Verlag, 1974, pp. 1-154.
26. F.E. Guedry, A.H. Rupert, B.J. McGrath and C.M. Oman, The Dynamics of Spatial Orientation during Complex and Changing Linear and Angular Acceleration, Journal of Vestibular Research 2(4) (1992), 259-283.
27. D.A. Hanes, Perceptual Centering Effects on Body Orientation, Biological Cybernetics 94(4) (2006), 288-299.
28. D.A. Hanes, Perceptual Centering of Body Segment Orientation, Journal of Vestibular Research 17(5-6) (2007), 251-270.
29. H. Hecht, J. Kavelaars, C.C. Cheung and L.R. Young, Orientation Illusions and Heart-Rate Changes during Short-Radius Centrifugation, Journal of Vestibular Research 11(2) (2001), 115-127.
30. S. Hochstein and M. Ahissar, View from the Top: Hierarchies and Reverse Hierarchies in the Visual System, Neuron 36 (2002), 791-804. (Pubitemid 35447852)
31. J.E. Holly, Subject-Coincident Coordinate Systems and Sustained Motions, International Journal of Theoretical Physics 30 (1996), 445-473.
32. J.E. Holly, Three-Dimensional Baselines for Perceived Self-Motion during Acceleration and Deceleration in a Centrifuge, Journal of Vestibular Research 7(1) (1997), 45-61.
33. J.E. Holly, Baselines for Three-Dimensional Perception of Combined Linear and Angular Self-Motion with Changing Rotational Axis, Journal of Vestibular Research 10(4-5) (2000), 163-178.
34. J.E. Holly, Perceptual Disturbances Predicted in Zero-g through Three-Dimensional Modelling, Journal of Vestibular Research 13(4-6) (2003), 173-186.
35. J.E. Holly, Vestibular coriolis effect differences modeled with three-dimensional linear-angular interactions, J Vestib Res 14 (2004), 443-460.
36. J.E. Holly and G. McCollum, The Shape of Self-Motion Perception. I. Equivalence Classification for Sustained Motions, Neuroscience 70 (1996), 461-486. (Pubitemid 3007681)
37. Y.P. Ivanenko, R. Grasso, I. Israël and A. Berthoz, The Contribution of Otoliths and Semicircular Canals to the Perception of Two-dimensional Passive Whole-Body Motion in Humans, Journal of Physiology 502 (1997), 233.
38. T.S. Kapteyn and W. Bles, Circular Vection and Human Posture III. Relation between the Reactions to Various Stimuli, Agressologie 18(6) (1977), 335-339.
39. L. Kaufman, Sight and Mind, New York: Oxford University Press, 1974.
40. J.R. Lackner, Some Proprioceptive Influences on the Perceptual Representation of Body Shape and Orientation, Brain 111 (1988), 281-297.
41. J.R. Lackner and P. DiZio, Multisensory Influences on Orientation and Movement Control, in: The Handbook of Multisensory Processes, G. Calvert, C. Spence and B. Stein, eds, Cambridge, Massachusetts: MIT Press, 2004, pp. 409-423.
42. J.R. Lackner and P. DiZio, Multisensory, Cognitive, and Motor Influences on Human Spatial Orientation in Weightlessness, Journal of Vestibular Research 3 (1993), 361-372.
43. J.R. Lackner and P. DiZio, Spatial Stability, Voluntary Action and Causal Attribution during Self-Locomotion, Journal of Vestibular Research 3 (1993), 15-23.
44. J.R. Lackner and P. DiZio, Visual stimulation affects the perception of voluntary leg movements during walking, Perception 17(1) (1988), 71-80.
45. J.R. Lackner and A. Graybiel, Some Influences of Touch and Pressure Cues on Human Spatial Orientation, Aviation, Space, and Environmental Medicine 49 (1978), 798-804.
46. J.R. Lackner and B. Tuller, The Influence of Syntactic Segmentation on Perceived Stress, Cognition 4 (1976), 303-307.
47. E.H. Land, D.H. Hubel, M.S. Livingstone, S.H. Perry and M.M. Burns, Colour-Generating Interactions across the Corpus Callosum, Nature 303(5918) (1983), 616-618.
48. J. Laurens and J. Droulez, Bayesian processing of vestibular information, Biol Cybern 96 (2007), 389-404.
49. P.R. MacNeilage, M.S. Banks, D.R. Berger and H.H. Bulthoff, A Bayesian model of the disambiguation of gravitoinertial force by visual cues, Exp Brain Res 179 (2007), 263-290.
50. A.M. Marme-Karelse and W. Bles, Circular Vection and Human Posture II. Does the Auditory System Play a Role? Agressologie 18(6) (1977), 329-333.
51. R. Mayne, A Systems Concept of the Vestibular Organs, in: Handbook of Sensory Physiology. Vestibular System 6, H.H. Kornhuber, ed., Berlin: Springer-Verlag, 1974, 493-580.
52. G. McCollum, Spatial Symmetry Groups as Sensorimotor Guidelines, Journal of Vestibular Research 17(5-6) (2007), 347-359.
53. G. McCollum and R. Boyle, Rotations in a Vertebrate Setting: Evaluation of the Symmetry Group of the Disynaptic Canalneck Projection, Biological Cybernetics 90 (2004), 203-217.
54. G. McCollum, C. Holroyd and A.M. Castelfranco, Forms of Early Walking, Journal of Theoretical Biology 176 (1995), 373-390.
55. G. McCollum, C.L. Shupert and L.M. Nashner, Organizing Sensory Information for Postural Control in Altered Sensory Environments, Journal of Theoretical Biology 180 (1996), 257-270. (Pubitemid 26237775)
56. G.A. Melcher and W. Henn, The Latency of Circular Vection during Different Accelerations of the Optokinetic Stimulus, Perception and Psychophysics 30(6) (1981), 552-556.
57. J.L. Meiry, The Vestibular System and Human Dynamic Space Orientation, NASA Contract Report 628 (November 1966), 1-192.
58. D.M. Merfeld, Modeling human vestibular responses during eccentric rotation and off vertical axis rotation, Acta Otolaryngol Suppl 520 (1995), 354-359.
59. H. Mittelstaedt, Interaction of Eye-, Head-, and Trunk-bound Information in Spatial Perception and Control, Journal of Vestibular Research 7 (1997), 283-302.
60. K. Moutoussis and S. Zeki, A Psychophysical Dissection of the Brain Sites Involved in Color-Generating Comparisons, Proceedings of the National Academy of Sciences 97(14) (2000), 8069-8074.
61. L.M. Nashner, F.O. Black and C. Wall III, Adaptation to Altered Support and Visual References during Stance: Patients with Vestibular Deficits, Journal of Neuroscience 2 (1982), 536-544. (Pubitemid 12034852)
62. M. Nawrot, Eye Movements Provide the Extra-Retinal Signal Required for the Perception of Depth from Motion Parallax, Vision Research 43 (2003), 1553-1562. (Pubitemid 36629524)
63. M. Ohmi, I.P. Howard and J.P. Landolt, Circular Vection as a Function of Foreground-Background Relationships, Perception 16(1) (1987), 17-22.
64. C.C. Ormsby and L.R. Young, Integration of semicircular canal and otolith information for multisensory orientation stimuli, Math Biosci 34 (1977), 1-21.
65. T. Probst, A. Straube and W. Bles, Differential Effects of Ambivalent Visual-Vestibular-Somatosensory Stimulation on the Perception of Self-motion, Behavior and Brain Research 16(1) (1985), 71-79.
66. G. Reymond, J. Droulez and A. Kemeny, Visuovestibular perception of self-motion modeled as a dynamic optimization process, Biol Cybern 87 (2002), 301-314.
67. G. Rizzolatti, Neurons Related to Goal-Directed Motor Acts in Inferior Area 6 of the Macaque Monkey, Experimental Brain Research 67 (1987), 220-224.
68. I. Rock, The Perception of Movement, in: Indirect Perception, (Chapter 14), I. Rock and S. Palmer, eds, Cambridge, Massachusetts: MIT Press, 1997, pp. 209-247.
69. R.W. Stone and W. Letko, Some Observations during Weightlessness Simulation with Subject Immersed in a Rotating Water Tank. NASA Tn D-2195,Washington, National Aeronautics and Space Administration, 1964.
70. J. Ternus, Experimentelle Untersuchungen Über phänomenale Identität. Psychologische Forschung 7, 1926, 71-126.
71. (Translated and condensed in W. Ellis, Source Book of Gestalt Psychology, Selection 11. Humanities Press, Inc., 1950).
72. H. Ujike and H. Ono, Depth Thresholds of Motion Parallax as a Function of Head Movement Velocity, Vision Research 41 (2001), 2835-2843.
73. C. Wehrhahn, Comparison of Color Sensation in Dichoptic and in Normal Vision, Biological Cybernetics 57(4-5) (1987), 213-215.
74. A. Werner, Color Constancy Improves, When an Object Moves: High-Level Motion Influences Color Perception, Journal of Vision 7(14) (2007), 19.1-14
75. A. Werner, R. Menzel and C. Wehrhahn, Color Constancy in the Honeybee, Journal of Neuroscience 8(1) (1988), 156-159.
76. A.H. Wertheim, B.S. Mesland and W. Bles, Cognitive Suppression of Tilt Sensations during Linear Horizontal Self-Motion in the Dark, Perception 30 (2001), 733-741.
77. M. Wertheimer, Laws of Organization in Perceptual Forms, in: Source Book of Gestalt Psychology, W.D. Ellis, ed., New York: Humanities Press, Inc., 1955, pp. 83-85.
78. S.J. Wood, Human Otolith-Ocular Reflexes during Off-Vertical Axis Rotation: Effect of Frequency on Tilt-Translation Ambiguity and Motion Sickness, Neuroscience Letters 323(1) (2002).
79. W.G. Wright, Human Self-motion Perception during Vertical Linear Oscillation and Virtual Environment Exposure, Ph.D. Dissertation, Brandeis University, Waltham, Massachusetts, 2002.
80. W.G. Wright, P. DiZio and J.R. Lackner, Vertical Linear Self-Motion Perception during Visual and Inertial Motion: More than Weighted Summation of Sensory Inputs, Journal of Vestibular Research 15 (2005), 185-195.
81. W.G. Wright and S. Glasauer, Haptic Subjective Vertical Shows Context Dependence: Task and Vision Play a Role during Dynamic Tilt Stimulation, Annals of the New York Academy of Sciences 1004 (2003), 531-535.
82. W.G. Wright and S. Glasauer, Subjective Somatosensory Vertical during Dynamic Tilt Is Dependent on Task, Inertial Condition, and Multisensory Concordance, Experimental Brain Research 172(3) (2006), 310-321.
83. W.G. Wright, E. Schneider and S. Glasauer, Compensatory Manual Motor Responses while ObjectWielding during Combined Linear Visual and Physical Roll Tilt Stimulation, Experimental Brain Research 192(4) (2009), 683-694.
84. L.R. Young, Perception of the Body in Space: Mechanisms, in: Handbook of Physiology, (Vol. III/I), S.R. Geiger, ed., Bethesda, Maryland: American Physiological Society, 1984.
85. L.H. Zupan, D.M. Merfeld and C. Darlot, Using sensory weighting to model the influence of canal, otolith and visual cues on spatial orientation and eye movements, Biol Cybern 86 (2002), 209-230.