Perception of linear horizontal self-motion induced by peripheral vision (linearvection) basic characteristics and visual-vestibular interactions

Berthoz, A., Pavard, B., Young, L.R.·1975·Experimental Brain Research

Cited by (453)

Items 201–300 of 453

  1. Neural Basis of Decision in Perception and in the Control of Movement
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  4. Out-of-Body Experiences and Other Complex Dissociation Experiences in a Patient with Unilateral Peripheral Vestibular Damage and Deficient Multisensory Integration
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  5. Motion Perception Thresholds in Flight Simulation
    Eric L. Groen, M. Wentink, A. R. Valente Pais, Max Mulder, Marinus M. van Paassen · 2006 · AIAA Modeling and Simulation Technologies Conference
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  8. Peripheral Visual Cues Contribute to the Perception of Object Movement During Self-Movement
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  9. Extension of the observability rank condition to nonlinear systems driven by unknown inputs
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  10. Influence of Inertial Stimulus on Visuo-Vestibular Cues Conflict for Lateral Dynamics at Driving Simulators
    Barış Aykent · 2013 · Journal of Ergonomics
  11. Effects of Virtual Reality Immersion and Walking Speed on Coordination of Arm and Leg Movements
    Johan Erik Giphart, Ying‐hui Chou, Do-Kyun Kim, C. T. Bortnyk, ROBERT C. WAGENAAR · 2007 · PRESENCE Virtual and Augmented Reality
  12. Perceptual scaling of visual and inertial cues
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  13. Demonstration of an illusory limb movement and associated motor activities induced by a moving visual stimulus in man. A descriptive study
    Marie-Françoise Tardy-Gervet, J. C. Gilhodes, Jean‐Pierre Roll · 1982 · Neuroscience Letters
  14. Spatiotemporal boundaries of linear vection
    Xavier M. Sauvan, Claude Bonnet · 1995 · Perception & Psychophysics
  15. Interactions between visual and muscular information in illusions of limb movement
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  16. Different Head-Sway Responses to Optic Flow in Sitting and Standing With a Head-Mounted Display
    Kanon Fujimoto, Hiroshi Ashida · 2020 · Frontiers in Psychology
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  18. Asymmetry in Forward and Backward Vection
    Anthony H. Reinhardt-Rutland · 1982 · Perceptual and Motor Skills
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    John P. Wann, Simon K. Rushton · 1994 · Behavioral and Brain Sciences
  20. Optic Flow Processing in Patients With Macular Degeneration
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  21. Going with the flow: Modifying self-motion perception with computer-mediated optic flow
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  22. Does tilt/translation ratio affect perception of deceleration in driving simulators?
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  23. Action Video Game Players Do Not Differ in the Perception of Contrast-Based Motion Illusions but Experience More Vection and Less Discomfort in a Virtual Environment Compared to Non-Action Video Game Players
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  25. On Spatial Cognition and Mobility Strategies
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  26. Dynamic Field of View Restriction in 360° Video: Aligning Optical Flow and Visual SLAM to Mitigate VIMS
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  27. A guideline proposal for minimizing cybersickness in VR-based serious games and applications
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  33. On the Effect of the Vertical Axis Alignment on Cybersickness and Game Experience in a Supine Posture
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  37. A Virtual Reality Study Investigating the Effect of Cybersickness on the Relationship Between Vection and Presence Across Environments with Varying Levels of Ecological Relevance
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  38. Buttock Skin Stretch: Inducing Shear Force Perception and Acceleration Illusion on Self-motion Perception
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  42. Errors in distance appreciation and binocular night vision
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  43. Virtual reality as a tool to understand spatial navigation
    Sarah H. Creem-Regehr, Jonathan W. Kelly, Bobby Bodenheimer, Jeanine K. Stefanucci · 2023 · Elsevier eBooks
  44. Modeling Verticality Estimation During Locomotion
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  47. Staying on Track: a Comparative Study on the Use of Optical Flow in 360° Video to Mitigate VIMS
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  49. Sensory-Motor Control and Balance: A Behavioural Perspective
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  50. Visual oscillation effects on dynamic balance control in people with multiple sclerosis
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  51. Postural control strategies with alterations in visual input conditions in a standing position
    Yumi Okayama, Mashu Maekawa, Shinichi Daikuya · 2024 · European Journal of Applied Physiology
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  53. A Visual-Vestibular Model to Predict Motion Sickness Response in Passengers of Autonomous Vehicles
    Nishant Jalgaonkar, Daniel Sousa Schulman, Sneha Ojha, Shorya Awtar · 2021 · SAE International Journal of Advances and Current Practices in Mobility
  54. Postural Balance and Peripheral Neuropathy
    Kathrine Jáuregui‐Renaud · 2013 · InTech eBooks
  55. Head Stabilization Shows Visual and Inertial Dependence During Passive Stimulation: Implications for Virtual Rehabilitation
    William Geoffrey Wright, Mobin Rastgar Agah, Kurosh K. Darvish, Emily A. Keshner · 2013 · IEEE Transactions on Neural Systems and Rehabilitation Engineering
  56. Review of Anthropomorphic Head Stabilisation and Verticality Estimation in Robots
    Ildar Farkhatdinov, Hannah H. Michalska, Alain Berthoz, Vincent Hayward · 2018 · Springer tracts in advanced robotics
  57. Higher-order cognitive processes moderate body tilt effects in vection
    Pearl S. Guterman, Robert Scott Allison · 2019 · Displays
  58. Material surface properties modulate vection strength
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  59. Visual–vestibular interactions
    Aasef G. Shaikh, David Samuel Zee, Jeffrey S. Taube, Amir Kheradmand · 2019 · Elsevier eBooks
  60. Visual-inertial structure from motion: Observability vs minimum number of sensors
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  66. A Developmental Perspective on Visual Proprioception
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  69. Effect of Depth Order on Linear Vection with Optical Flows
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  70. Do Balance Demands Induce Shifts in Visual Proprioception in Crawling Infants?
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  74. A Biologically-Inspired Model to Predict Perceived Visual Speed as a Function of the Stimulated Portion of the Visual Field
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  80. Velocity influences the relative contributions of visual and vestibular cues to self-acceleration
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