perception action locomotion

Perception-action coupling in locomotion: optic flow and visual control of steering and heading (Gibson), tau and time-to-contact theory (Lee), visually guided braking and interception, vection and self-motion perception, and ecological approaches to locomotor control. The foundational perception-action construct, distinct from time_to_collision_looming (TTC judgment as a driving hazard cue) and from steering_pattern (measured driving behavior); this is the basic science of how vision guides movement.

Related elsewhere in the corpus

Topics that co-occur with this one far more than chance predicts — these sit in other categories, so the hierarchy would not have shown them to you.

Narrow by how the study was done

Counts are papers in this topic that declare the facet — these facets are sparsely declared, so a small number means few papers said, not few papers did. All facets.

Method 48 of 221 declare it
Instruments & Measures 39 of 221 declare it
Automation level 22 of 221 declare it
Dataset 15 of 221 declare it

221 paper(s) · ranked by relevance to this topic

  1. Visual control of locomotion · 1977 · LEE, DAVID N. et al. · indexed
  2. Time-to-contact · 2004 · Hecht, Heiko et al. · indexed
  3. From vision to action: Experiments and models of steering control during driving. · 2000 · Hildreth, Ellen C. et al. · indexed
  4. Humans use Optokinetic Eye Movements to Track Waypoints for Steering · 2020 · Lappi, Otto et al. · indexed
  5. Curvilinear Approach to an Intersection and Visual Detection of a Collision · 1993 · Berthelon, Catherine et al. · indexed
  6. Use of Peripheral Vision in the Decision to Brake · 1989 · Bardy, Benoît G. et al. · indexed
  7. Visual Cues and Attention Demand in Locomotor Positioning · 1991 · Bardy, Benoît G. et al. · indexed
  8. The need for speed: global optic flow speed influences steering · 2016 · Kountouriotis, Georgios K. et al. · indexed
  9. Humans Use Predictive Gaze Strategies to Target Waypoints for Steering · 2019 · Tuhkanen, Samuel et al. · indexed
  10. Evaluating perception in driving simulation experiments · 2003 · Kemeny, Andras et al. · archived
  11. The role of gaze and road edge information during high-speed locomotion. · 2012 · Kountouriotis, Georgios K. et al. · indexed
  12. Artificial Optic Flow Guides Visual Attention in a Driving Scene · 2019 · Higuchi, Yoko et al. · indexed
  13. Time-to-Collision Estimation in a Simulated Driving Task · 1996 · Sidaway, Ben et al. · indexed
  14. Steering is initiated based on error accumulation. · 2022 · Goodridge, Courtney M. et al. · indexed
  15. Steering along curved paths is influenced by global flow speed not speed asymmetry · 2015 · Kountouriotis, Georgios et al. · indexed
  16. Visual information about moving objects. · 1981 · Todd, James T. · indexed
  17. Gaze Strategies in Driving–An Ecological Approach · 2022 · Lappi, Otto · indexed
  18. Visual Cues for Vehicle Control · 1993 · Kaiser, Mary K. et al. · indexed
  19. The role of looming and attention capture in drivers’ braking responses · 2008 · Terry, Hugh R. et al. · indexed
  20. The knowledge base of the oculomotor system · 1997 · Land, Michael F. et al. · archived
  21. Steering is initiated based on error accumulation · 2021 · Goodridge, Courtney Michael et al. · indexed
  22. Visual control of braking behind a moving lead vehicle · 2010 · Diaz, G. J. et al. · indexed
  23. Optic-Flow and Cognitive Factors in Time-to-Collision Estimates · 1983 · McLeod, Ronald W. et al. · indexed
  24. Detection of linear ego-acceleration from optic flow · 2012 · Festl, Freya et al. · indexed
  25. Effects of an active visuomotor steering task on covert attention · 2019 · Tuhkanen, Samuel et al. · archived
  26. A Two-Point Visual Control Model of Steering · 2004 · Salvucci, Dario D et al. · indexed
  27. Visual Strategies Used for Time-to-Arrival Judgments in Driving · 2010 · van Loon, Editha M et al. · indexed
  28. Attentional Biases during Steering Behavior · 2013 · Bieg, Hans-Joachim et al. · archived
  29. How we avoid collisions with stationary and moving objects. · 1995 · Cutting, James E. et al. · indexed
  30. Can gaze control steering? · 2023 · Tuhkanen, Samuel et al. · indexed
  31. Is visual anticipation of collision during self-motion related to perceptual style? · 1998 · Berthelon, Catherine et al. · indexed
  32. Prospective control of lane changing and tau-dot · 2010 · Chatziastros, A. et al. · indexed
  33. Vehicle Control During Curve Driving · 1986 · Godthelp, Hans · indexed
  34. ROAD ENVIRONMENT AND VISUAL ANTICIPATION OF A COLLISION DURING SELF-MOTION · 1999 · Berthelon, Catherine et al. · indexed
  35. The visual control of bicycle steering: The effects of speed and path width · 2013 · Vansteenkiste, Pieter et al. · indexed
  36. Visual control during straight road driving · 1981 · Riemersma, J.B.J. · indexed
  37. New Results in Driver Steering Control Models · 1977 · McRuer, Duane T. et al. · indexed
  38. Perceiving Time to Collision Activates the Sensorimotor Cortex · 2005 · Field, David T. et al. · indexed
  39. A THEORY FOR DRIVER STEERING CONTROL OF MOTOR VEHICLES · 1968 · Weir, David H. et al. · indexed
  40. Dynamic Evaluation of the Useful Field of View in Driving · 2001 · Mestre, Daniel R · indexed
  41. Gibson and Crooks (1938): Vision and Validation · 2017 · Delucia, Patricia R. et al. · indexed
  42. Spatial reference frames and driver performance · 1996 · ROGÉ, JOCELINE · indexed
  43. Head Movements While Steering around Bends · 2012 · van Erp, Jan B. F. et al. · indexed
  44. Visual Information and Skill Level in Time-To-Collision Estimation · 1988 · Cavallo, Viola et al. · indexed
  45. A field study on braking responses during driving. I. Triggering and modulation · 1995 · LIEBERMANN, D. G. et al. · indexed
  46. Optic Flow and Tunnel Vision in the Detection Response Task · 2019 · van Winsum, Wim · indexed
  47. Prevention of coordinated eye movements and steering impairs driving performance · 2005 · Marple-Horvat, D. E. et al. · indexed
  48. The limits of path error-neglecting in straight lane driving · 1988 · GODTHELP, HANS · indexed
  49. Toward a Theory of Visual Information Acquisition in Driving · 2022 · Wolfe, Benjamin et al. · indexed
  50. Can Stroboscopic Training Improve Judgments of Time-to-Collision? · 2019 · Braly, Adam M. et al. · indexed
  51. Characterization of natural head and eye movements driving retinal flow · 2019 · MacNeilage, Paul R et al. · indexed
  52. Visual Information in Judgments of Head-On Collisions · 2007 · Mork, Kerstan S. et al. · indexed
  53. Visual anticipation of the future path: Predictive gaze and steering · 2021 · Tuhkanen, Samuel et al. · indexed
  54. Environmental Cues Involved in the Visual Anticipation of a Collision · 2000 · Catherine, Berthelon et al. · indexed
  55. Task-irrelevant optic flow guides overt attention during visual search · 2017 · Higuchi, Yoko et al. · indexed
  56. On the nature of eye-hand coordination in natural steering behavior · 2020 · Navarro, Jordan et al. · indexed
  57. A synthetic-vision based steering approach for crowd simulation · 2010 · Ondřej, Jan et al. · archived
  58. Modeling Drivers’ Lateral Motion Control · 2015 · Ni, Daiheng · archived
  59. A Two-Level Model of Driver Steering Behavior · 1978 · Donges, Edmund · indexed
  60. Motor-induced visual motion: hand movements driving visual motion perception · 2014 · Keetels, Mirjam et al. · indexed
  61. Active self-motion control and the role of agency under ambiguity · 2023 · Rineau, Anne-Laure et al. · indexed
  62. Visuomotor Functions in the Frontal Lobe · 2015 · Schall, Jeffrey D. · indexed
  63. Simple actions influence eye movements · 2016 · Suh, Jihyun et al. · indexed
  64. Anticipation of physical causality guides eye movements · 2016 · Wende, Kim et al. · indexed
  65. A Visual Servoing approach for road lane following with obstacle avoidance · 2014 · de Lima, Danilo Alves et al. · archived
  66. Stroboscopic vision prolongs visual motion perception in the central nervous system · 2023 · Hülsdünker, Thorben et al. · indexed
  67. Reliance on visual attention during visuomotor adaptation: an SSVEP study · 2015 · Reuter, Eva-Maria et al. · indexed
  68. Visually guided landing of an unmanned aerial vehicle · 2003 · Saripalli, S. et al. · indexed
  69. Pure Pursuit Guidance for Car-Like Ground Vehicle Trajectory Tracking · 2017 · Chen, Yuanyan et al. · indexed
  70. Autonomous Landing for Indoor Flying Robots Using Optic Flow · 2003 · Green, William E. et al. · indexed
  71. Vision-based autonomous landing of an unmanned aerial vehicle · 2003 · Saripalli, S. et al. · indexed
  72. A new neural framework for visuospatial processing · 2011 · Kravitz, Dwight J. et al. · indexed
  73. Sense of Agency Primes Manual Motor Responses · 2009 · Longo, Matthew R et al. · indexed
  74. Motion Planning in Dynamic Environments Using Velocity Obstacles · 1998 · Fiorini, Paolo et al. · indexed
  75. ACO-Kinematic: a hybrid first off the starting block · 2022 · Chaudhary, Kaylash et al. · indexed
  76. Autonomous landing on a moving vehicle with an unmanned aerial vehicle · 2019 · Baca, Tomas et al. · indexed
  77. Reciprocal Collision Avoidance With Motion Continuity Constraints · 2013 · Rufli, Martin et al. · indexed
  78. The vector field histogram-fast obstacle avoidance for mobile robots · 1991 · Borenstein, J. et al. · indexed
  79. The dynamic window approach to collision avoidance · 1997 · Fox, D. et al. · indexed
  80. Real-Time Obstacle Avoidance for Manipulators and Mobile Robots · 1986 · Khatib, Oussama · indexed
  81. A vision system for landing an unmanned aerial vehicle · 2002 · Sharp, C.S. et al. · indexed
  82. High-speed navigation using the global dynamic window approach · 2003 · Brock, O. et al. · indexed
  83. Formation flying with nonlinear partial integrated guidance and control · 2014 · Padhi, Radhakant et al. · indexed
  84. Reciprocal Velocity Obstacles for real-time multi-agent navigation · 2008 · van den Berg, Jur et al. · indexed
  85. Dynamic Channel: A Planning Framework for Crowd Navigation · 2019 · Cao, Chao et al. · archived
  86. Exact robot navigation using artificial potential functions · 1992 · Rimon, E. et al. · indexed
  87. Elastic bands: connecting path planning and control · 2002 · Quinlan, S. et al. · indexed
  88. Multi-hypothesis motion planning for visual object tracking · 2011 · Gong, Haifeng et al. · archived
  89. Variable stiffness for shared authority control in robotic walkers · 2026 · Andreetto, Marco et al. · indexed
  90. Autonomous Parking Using Optimization-Based Collision Avoidance · 2018 · Zhang, Xiaojing et al. · indexed
  91. Cooperative Avoidance Control for Multiagent Systems · 2007 · Stipanović, Dušan M. et al. · indexed
  92. Bearing-Only Control Laws For Balanced Circular Formations of Ground Robots · 2008 · Moshtagh, Nima et al. · indexed
  93. Force-Based Algorithm for Motion Planning of Large Agent · 2020 · Semnani, Samaneh Hosseini et al. · indexed
  94. A ground-based optical system for autonomous landing of a fixed wing UAV · 2014 · Kong, Weiwei et al. · indexed
  95. Deep Q Learning with LSTM for Traffic Light Control · 2018 · Choe, Chungjae et al. · indexed
  96. Collision avoidance for multiple agent systems · 2004 · Chang, Dong Eui et al. · indexed
  97. A Road to Ecocritical Insight in Virginia Woolf’s To the Lighthouse · 2022 · Khoshkam, Sara et al. · indexed
  98. Path-planning in 3D space using butterfly optimization algorithm · 2021 · Jaafar, Al Hamami Duaa et al. · indexed