Motion Sickness: An Evolutionary Hypothesis

Cited by (391)

Items 101–200 of 391

1. A Review on Cybersickness and Usability in Virtual Environments
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2. Vestibular Symptoms, Panic, and Phobia
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3. Evaluating the effect of multi-sensory stimulations on simulator sickness and sense of presence during HMD-mediated VR experience
   Simone Grassini, Karin Laumann, Virginia de Martin Topranin, Sebastian Oltedal Thorp · 2021 · Ergonomics
4. Visual Vertigo, Motion Sickness, and Disorientation in Vehicles
   Adolfo Miguel Bronstein, John Foster Golding, Michael Andrew Gresty · 2020 · Seminars in Neurology
5. Effect of time pressure on steering control of the drivers in a car-following situation
   Nishant Mukund Pawar, Nagendra R. Velaga · 2021 · Transportation Research Part F Traffic Psychology and Behaviour
6. Motion sickness and development of synergy within the spatial orientation system. a hypothetical unifying concept
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7. Prevalence and Correlates of Susceptibility to Motion Sickness
   Krishan Sharma · 1997 · Acta geneticae medicae et gemellologiae
8. A Comparison of Cybersickness Incidences, Symptom Profiles, Measurement Techniques, and Suggestions for Further Research
   Robert S. Kennedy, D. Susan Lanham, Julie M. Drexler, Catherine Joan Massey, Michael G. Lilienthal · 1997 · PRESENCE Virtual and Augmented Reality
9. Game play in virtual reality driving simulation involving head-mounted display and comparison to desktop display
   Shi Chao Cao, Krithika Nandakumar, Raiju Jacob Babu, Benjamin S. Thompson · 2019 · Virtual Reality
10. PRECYSE: Predicting Cybersickness using Transformer for Multimodal Time-Series Sensor Data
    Dayoung Jeong, Kyungsik Han · 2024 · Proceedings of the ACM on Interactive Mobile Wearable and Ubiquitous Technologies
11. Visually Induced Motion Sickness on the Horizon
    Wanja Hemmerich, Behrang Keshavarz, Heiko Hecht · 2020 · Frontiers in Virtual Reality
12. Minimizing cybersickness in head-mounted display systems: causes and strategies review
    Thiago Malheiros Porcino, Daniela Gorski Trevisan, Esteban Clua · 2020 · Symposium on Virtual and Augmented Reality (SVR)
13. A cybersickness review: causes, strategies, and classification methods
    Thiago Malheiros Porcino, Daniela Gorski Trevisan, Esteban Clua · 2021 · Journal on Interactive Systems
14. Influence of different conditions for tilt compensation on symptoms of motion sickness in tilting trains
    Johan Förstberg, Evert Andersson, T. Ledin · 1998 · Brain Research Bulletin
15. Description of a Treatment Manual for in virtuo Exposure with Specific Phobia
    Stéphane Bouchard, G. Robillard, Serge Larouche, Claudie Loranger · 2012 · InTech eBooks
16. Stress Response of Beagle Dogs to Repeated Short-Distance Road Transport
    Johannes Herbel, Jörg E Aurich, Camille Gautier, Maria Melchert, Christine Aurich · 2020 · Animals
17. Bio-physiological-signals-based VR cybersickness detection
    Chenxin Qu, Xiaoping Che, Siqi Ma, Shuqin Zhu · 2022 · CCF Transactions on Pervasive Computing and Interaction
18. Reductions in body temperature and spontaneous activity in rats exposed to horizontal rotation: Abolition following chemical labyrinthectomy
    Klaus‐Peter Ossenkopp, Yacov Rabi, Lisa A. Eckel, Eric L. Hargreaves · 1994 · Physiology & Behavior
19. Negative Effects Associated with HMDs in Augmented and Virtual Reality
    Charles R. Descheneaux, Lauren Reinerman-Jones, Jason D. Moss, David M. Krum, Irwin L. Hudson · 2020 · Lecture notes in computer science
20. A Survey on Simulation Sickness in Driving Applications with Virtual Reality Head-Mounted Displays
    Stanislava Rangelova, Elisabeth André · 2018 · PRESENCE Virtual and Augmented Reality
21. The contribution of expectations to motion sickness symptoms and gastric activity
    Manda J. Williamson, Matthew J Thomas, Robert M. Stern · 2004 · Journal of Psychosomatic Research
22. Probing the role of the vestibular system in motivation and reward-based attention
    Elvio Blini, Caroline Tilikete, Alessandro Farnè, Fadila Hadj‐Bouziane · 2018 · Cortex
23. Mild simulator sickness can alter heart rate variability, mental workload, and learning outcomes in a 360° virtual reality application for medical education: a post hoc analysis of a randomized controlled trial
    Li‐Jen Hsin, Yi‐Ping Chao, Hai‐Hua Chuang, Terry B. J. Kuo, Cheryl C.H. Yang, Chung‐Guei Huang, Chung‐Jan Kang, Wan‐Ni Lin, Tuan‐Jen Fang, Hsueh‐Yu Li et al. · 2022 · Virtual Reality
24. Effects of screen size and visual presentation on visual fatigue based on regional brain wave activity
    Chun‐Chia Lee, Hsiu‐Sen Chiang, Meng-Hsing Hsiao · 2020 · The Journal of Supercomputing
25. Do the organs of the labyrinth differentially influence the sympathetic and parasympathetic systems?
    Fred H. Previc · 1993 · Neuroscience & Biobehavioral Reviews
26. MAC: multimodal, attention-based cybersickness prediction modeling in virtual reality
    Dayoung Jeong, Seungwon Paik, Youngtae Noh, Kyungsik Han · 2023 · Virtual Reality
27. Activation of GFRAL+ neurons induces hypothermia and glucoregulatory responses associated with nausea and torpor
    Linda Engström, Ferran Font‐Gironès, Joanna Zajdel, Lara Kern, Júlia Teixidor-Deulofeu, Louise Mannerås-Holm, Alba Carreras, Barbara Becattini, Andreas Björefeldt, Eric Hanse et al. · 2024 · Cell Reports
28. Validation of a moving base driving simulator for motion sickness research
    Tessa M. W. Talsma, Omar Hassanain, Riender Happee, Ksander N. de Winkel · 2022 · Applied Ergonomics
29. Motion Sickness and Differential Susceptibility
    Robert M. Stern, Kenneth L. Koch · 1996 · Current Directions in Psychological Science
30. Influence of navigation parameters on cybersickness in virtual reality
    Jean-Rémy Chardonnet, Mohammad Ali Mirzaei, Frédéric Merienne · 2020 · Virtual Reality
31. Training wheelchair navigation in immersive virtual environments for patients with spinal cord injury – end-user input to design an effective system
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32. Alpha-9 nicotinic acetylcholine receptors mediate hypothermic responses elicited by provocative motion in mice
    Longlong Tu, Lauren A. Poppi, John Anthony Rudd, Ethan T Cresswell, Doug William Smith, Alan M. Brichta, Eugene Nalivaiko · 2017 · Physiology & Behavior
33. Study on Experimental Motion Sickness in Children
    Masahiro Takahashi, Ikuko Toriyabe, Yasuhiko Takei, Jin Kanzaki · 1994 · Acta Oto-Laryngologica
34. Simulator Adaptation Syndrome Literature Review
    Michael Mollenhauer · 2004
35. VRSpinning
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36. Effects of vestibular training on motion sickness, nystagmus, and subjective vertical
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37. Investigation of driving performance, vection, postural sway, and simulator sickness in a fixed-based driving simulator
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38. Virtual Reality Self Induced Cybersickness: An Exploratory Study
    Ana Nunes de Almeida, Francisco Rebelo, Paulo Noriega, Elisângela Vilar · 2017 · Advances in intelligent systems and computing
39. Get Well Soon! Human Factors’ Influence on Cybersickness After Redirected Walking Exposure in Virtual Reality
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40. Motion sickness: A negative reinforcement model
    Brad Earl Bowins · 2009 · Brain Research Bulletin
41. Mechanisms and Treatment of Motion Illness
    Jonathan Stott · 1986 · Advances in applied neurological sciences
42. Menière's disease, signs and symptoms
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43. Prescript-assist™ probiotic-prebiotic treatment for irritable bowel syndrome: An open-label, partially controlled, 1-year extension of a previously published controlled clinical trial
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44. Predicting VR cybersickness and its impact on visuomotor performance using head rotations and field (in)dependence
    Arthur Maneuvrier, Ngoc-Doan-Trang Nguyen, Patrice Renaud · 2023 · Frontiers in Virtual Reality
45. Motion sickness may be caused by a neurohumoral action of acetylcholine
    Leonard M. Eisenman · 2009 · Medical Hypotheses
46. Assessment of otolith function using cervical and ocular vestibular evoked myogenic potentials in individuals with motion sickness
    Niraj Kumar Singh, Preeti Pandey, Mahesh Soumya · 2014 · Ergonomics
47. Theory of a subjective vertical–horizontal conflict physiological motion sickness model for contemporary ships
    Hassan Khalid, Osman Turan, Jelte E. Bos · 2011 · Journal of Marine Science and Technology
48. Immersive and participatory serious games for heritage education, applied to the cultural heritage of South Tyrol
    Alessandro Luigini, Monica Parricchi, Alessandro Basso, Demis Basso · 2019 · Interaction design & architecture(s)/ID&A Interaction design & architecture(s)
49. Field-of-View Restriction to Reduce VR Sickness Does Not Impede Spatial Learning in Women
    Isayas Berhe Adhanom, Majed Al Zayer, Paul R. MacNeilage, Eelke Folmer · 2021 · ACM Transactions on Applied Perception
50. Virtual and Augmented Reality
    Andras A. Kemeny · 2023 · Springer eBooks
51. Exploring neural and peripheral physiological correlates of simulator sickness
    Jan‐Philipp Tauscher, Alexandra Witt, Sebastian Bosse, Fabian Wolf Schottky, Steve Grogorick, Susana Castillo, Marcus A. Magnor · 2020 · Computer Animation and Virtual Worlds
52. Identification Of System Design Features That Affect Sickness In Virtual Environments
    Julie M. Drexler · 2006 · Journal of International Crisis and Risk Communication Research
53. The effect of smoking nicotine tobacco versus smoking deprivation on motion sickness
    Golding, John F., Prosyanikova, Olena, Flynn, Maria, Gresty, Michael A. · 2011 · Autonomic Neuroscience
54. A K-Seat-Based PID Controller for Active Seat Suspension to Enhance Motion Comfort
    Γεώργιος Παπαϊωάννου, Donghong Ning, Jenny Jerrelind, Lars Drugge · 2022 · SAE International Journal of Connected and Automated Vehicles
55. Provocative motion causes fall in brain temperature and affects sleep in rats
    Flavia Del Vecchio, Eugene Nalivaiko, Matteo Cerri, Marco Luppi, Roberto Amici · 2014 · Experimental Brain Research
56. Immersive visual technologies and human health
    Simone Grassini, Karin Laumann · 2021 · European Conference on Cognitive Ergonomics
57. Motion Sickness Detection for Intelligent Vehicles: A Wearable-Device-Based Approach
    Ruichen Tan, Wenbo Li, Fengqing Hu, Xiaofeng Xiao, Shen Li, Yang Xing, Hong Wang, Dongpu Cao · 2022 · IEEE International Conference on Intelligent Transportation Systems (ITSC)
58. Airsickness: Etiology, Treatment, and Clinical Importance—A Review
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59. Virtual Environment Usage Protocols
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60. Human Perception-Optimized Planning for Comfortable VR-Based Telepresence
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61. Apomorphine-induced vomiting in rainbow trout (Salmo gairdneri)
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62. Physiology-driven cybersickness detection in virtual reality: a machine learning and explainable AI approach
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63. Mitigation of Motion Sickness and Optimization of Motion Comfort in Autonomous Vehicles: Systematic Survey
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64. Assessment of optimal passive suspensions regarding motion sickness mitigation in different road profiles and sitting conditions
    Γεώργιος Παπαϊωάννου, Jenny Jerrelind, Lars Drugge, Barys N. Shyrokau · 2021 · IEEE International Conference on Intelligent Transportation Systems (ITSC)
65. Virtual Environments for Dismounted Soldier Training and Performance: Results, Recommendations, and Issues.
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66. Vestibular CCK signaling drives motion sickness–like behavior in mice
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67. Potential factors contributing to observed sex differences in virtual-reality-induced sickness
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68. Thermoregulation and nausea
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69. Mitigation of Cybersickness in Immersive 360°Videos
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70. Tracking motion sickness in dynamic VR environments with EDA signals
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71. The effects of cybersickness on persons with multiple sclerosis
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72. Failure of LiCl-conditioned taste aversion to prevent dogs from attacking sheep
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73. Motion Sickness History, Food Neophobia, and Sensation Seeking
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74. New Digital Work
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75. A review of two theories of motion sickness and their implications for tall building motion sway
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76. Virtual Environment Usage Protocols
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81. The Comparisons of Heart Rate Variability and Perceived Exertion During Simulated Cycling with Various Viewing Devices
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82. Prophylactic ondansetron for post-operative emesis: meta-analysis of its effectiveness in patients with and without a previous history of motion sickness
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83. To VR or not to VR: assessing cybersickness in navigational tasks at different levels of immersion
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84. VESTIBULAR FINDINGS IN MOTION SICKNESS (REVIEW ARTICLE)
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85. Electrodermal Responses to Driving Maneuvers in a Motion Sickness Inducing Real-World Driving Scenario
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86. The Physiology and Pharmacology of Nausea and Vomiting Induced by Anticancer Chemotherapy in Humans
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87. Teleology of Motion Sickness
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88. An assessment of the effects of neurokinin 1 receptor antagonism against nausea and vomiting: Relative efficacy, sites of action and lessons for future drug development
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89. The Effects of Secondary Task Demands on Cybersickness in Active Exploration Virtual Reality Experiences
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90. Dynamic Field of View Restriction in 360° Video: Aligning Optical Flow and Visual SLAM to Mitigate VIMS
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91. Space Motion Sickness and Vestibular Experiments in Spacelab
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92. Automatic cybersickness detection by deep learning of augmented physiological data from off-the-shelf consumer-grade sensors
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93. Ondansetron and promethazine have differential effects on hypothermic responses to lithium chloride administration and to provocative motion in rats
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94. What is Motion Sickness?a
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95. Repeated experience or a virtual nose to reduce simulator sickness? – Investigating prediction of the sensorial conflict theory and the rest-frame hypothesis in two virtual games
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96. Virtual reality and neuropsychological assessment: an analysis of human factors influencing performance and perceived mental effort
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97. A review of carsickness mitigation: Navigating challenges and exploiting opportunities in the era of intelligent vehicles
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98. Motion sickness caused by roll-compensated lateral acceleration: Effects of centre-of-rotation and subject demographics
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99. Are You Sitting Comfortably? How Current Self-driving Car Concepts Overlook Motion Sickness, and the Impact It Has on Comfort and Productivity
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100. Earth-Fixed Books Reduce Motion Sickness When Reading With a Head-Mounted Display
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