Physiological Response of Imagery Running with or without an Avatar in 3D Virtual Reality: A Preliminary Study
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[OBJECTIVES] The present study is aimed at observing the physiological response imagery running with an avatar in 3D virtual reality (VR) and to explore the differences in physiological responses between imagery running with and without an avatar in 3D VR. [METHODS] We randomly assigned 32 healthy adults to either a group with Avatar (n = 19) or a group without (n = 13). The group with avatar performed imagery exercise with an avatar in 3D VR and the group without Avatar performed it without an avatar in 3D VR. Both groups were instructed to mentally imagine performing running in VR without executing actual physical movements. We recorded electro-physiological data before, during, and after the 20-min intervention. We also measured the participants’ level of presence and intensity of experienced cybersickness. [RESULTS] In the group with Avatar, all physiological responses increased from the resting to the intervention period. The group with Avatar also showed a higher level of presence and fewer cybersickness symptoms than the group without Avatar. [CONCLUSIONS] The results suggest imagery running with an avatar in 3D VR might be effective as an alternative exercise.
Abstract
[OBJECTIVES] The present study is aimed at observing the physiological response imagery running with an avatar in 3D virtual reality (VR) and to explore the differences in physiological responses between imagery running with and without an avatar in 3D VR. [METHODS] We randomly assigned 32 healthy adults to either a group with Avatar (n = 19) or a group without (n = 13). The group with avatar performed imagery exercise with an avatar in 3D VR and the group without Avatar performed it without an avatar in 3D VR. Both groups were instructed to mentally imagine performing running in VR without executing actual physical movements. We recorded electro-physiological data before, during, and after the 20-min intervention. We also measured the participants’ level of presence and intensity of experienced cybersickness. [RESULTS] In the group with Avatar, all physiological responses increased from the resting to the intervention period. The group with Avatar also showed a higher level of presence and fewer cybersickness symptoms than the group without Avatar. [CONCLUSIONS] The results suggest imagery running with an avatar in 3D VR might be effective as an alternative exercise.
참고문헌 (40)
- Grabherr L, "Motor imagery training improves precision of an upper limb movement in patients with hemiparesis", NeuroRehabilitation, 36(2), pp.157~166 (2015)
- Fortes LS, "Effect of an eight-week imagery training programme on passing decision-making of young volleyball players", Int J Sport Exerc Psychol, 18(9), pp.120~128 (2018)
- Fortes LD, "Effect of motor imagery training on tennis service performance in young tennis athletes", Rev Psicol Deporte, 28(1), pp.157~168 (2019)
- 이창영, "이미지 트레이닝이 아이스하키 선수들의 슛팅과 페널티 샷에 미치는 영향", 체육과학연구, 19(4), pp.204~213 (2008), 국민체육진흥공단 한국스포츠정책과학원[DOI]
- Robin N, "Effects of motor imagery training on service return accuracy in tennis : The role of imagery ability", International Journal of Sport and Exercise Psychology, 5(2), pp.175~186 (2007)
- Rodgers W, "The effect of an imagery program on imagery ability, imagery use, and figure skating performance", J Appl Sport Psychol, 3(2), pp.109~125 (1991)
- Decety J, "The neurophysiological basis of motor imagery", Behav Brain Res, 77, pp.45~52 (1996)
- Driskell JE, "Does mental practice enhance performance?", J Appl Psychol, 79(4), pp.481~492 (1994)
- Gerardin E, "Partially overlapping neural networks for real and imagined hand movements", Cereb Cortex, 10(11), pp.1093~1104 (2000)
- Li L, "The study of objectoriented motor imagery based on EEG suppression", PLoS One, 10(12), pp.e014456~ (2015)
- Mulder T, "The role of motor imagery in learning a totally novel movement", Exp Brain Res, 154, pp.211~217 (2004)
- Munzert J, "Cognitive motor processes : The role of motor imagery in the study of motor representations", Brain Res Rev, 60(2), pp.306~326 (2009)
- Silva S, "Motor imagery for gait rehabilitation after stroke", Cochrane Database Syst Rev, 2015(5), pp.CD013019~ (2018)
- Aziz-Zadeh L, "The human mirror neuron system and embodied representations", Adv Exp Med Biol, 629, pp.355~376 (2009)
- Jeannerod M, "The representing brain: Neural correlates of motor intention and imagery", Behav Brain Sci, 17(2), pp.187~245 (1994)
- Ethon DT, "The measurement of imagery vividness: A test of the reliability and validity of the vividness of visual imagery questionnaire", Journal of Mental Imagery, 22(3-4), pp.125~136 (1998)
- Falconer CJ, "Embodying compassion : A virtual reality paradigm for overcoming excessive self-criticism", PLoS One, 9(11), pp.e111933~ (2014)
- Gorisse G, "Firstand third-person perspectives in immersive virtual environments : Presence and performance analysis of embodied users", Front Robot AI, 4, pp.33~ (2017)
- Huang CH, "Influence of the perspectives on the movement of one-leg lifting in an interactivevisual virtual environment : A pilot study", PLoS One, 11(9), pp.e0163247~ (2016)
- Kokkinara E, "First person perspective of seated participants over a walking virtual body leads to illusory agency over the walking", Sci Rep, 6(1), pp.1~11 (2016)
- Salamin P, "Quantifying effects of exposure to the third and firstperson perspectives in virtual-reality-based training", IEEE Transactions on Learning Technologies, 3(3), pp.272~276 (2010)
- Havranek M, "Perspective and agency during video gaming influences spatial presence experience and brain activation patterns", Behav Brain Funct, 8(1), pp.34~ (2012)
- Ishiguro T, "Immersive experience influences eye blink rate during virtual reality gaming", Pol Psychol Bull, 50(1), pp.49~53 (2019)
- Galvan Debarba H, "Characterizing embodied interaction in First and Third Person perspective viewpoints", Proceedings of 2015IEEE Symposium on 3D User Interfaces (3DUI), pp.67~72 (2015)
- Lugrin JL, "Avatar embodiment realism and virtual fitness training", Proceedings of 2015IEEE Virtual Reality (VR), pp.225~226 (2015)
- Shiffrar M, "Athletic ability changes action perception : Embodiment in the visual perception of human movement", German Journal of Sport Psychology, 17(4), pp.130~142 (2010)
- Prasad S, "Viewpoint and the recognition of people from their movements", J Exp Psychol Human, 35(1), pp.39~49 (2009)
- Monteiro D, "Evaluating enjoyment, presence, and emulator sickness in VR games based on first-and third-person viewing perspectives", Comput Animat Virt W, 29(3-4), pp.e1830~ (2018)
- Witmer BG, "Measuring presence in virtual environments: A presence questionnaire", Presence, 7(3), pp.225~240 (1998)
- Kennedy RS, "Simulator sickness questionnaire : An enhanced method for quantifying simulator sickness", Int J Aviat Psychol, 3(3), pp.203~220 (1993)
- Bakker FC, "Changes in muscular activity while imagining weight lifting using stimulus or response propositions", J Sport Exerc Psychol, 20(3), pp.313~324 (1998)
- Guillot A, "Muscular responses during motor imagery as a function of muscle contraction types", Int J Psychophysiol, 66, pp.18~27 (2007)
- Papadelis C, "Effects of imagery training on cognitive performance and use of physiological measures as an assessment tool of mental effort", Brain Cognition, 64(1), pp.74~85 (2007)
- 최보성, "중년여성에서 등속성 운동 시 세트간의 휴식시간이 등속성 근기능 및 생리적 변인에 미치는 영향", 한국전문물리치료학회지, 8(3), pp.77~95 (2001), 한국전문물리치료학회
- Katayama K, "Substrate utilization during exercise and recovery at moderate altitude", Metabolism, 59(7), pp.959~966 (2010)
- Michelsen JS, "Wearable electromyography recordings during daily life activities in children with cerebral palsy", Dev Med Child Neurol, 62(2), pp.714~722 (2020)
- Serrador JM, "Physical activity is a major contributor to the ultra low frequency components of heart rate variability", Heart, 82(6), pp.e9~ (1999)
- Ulucan S, "Deterioration of heart rate recovery index in patients with erectile dysfunction", Anatol J Cardiol, 16(4), pp.264~269 (2016)
- Vargas NT, "Skin wettedness is an important contributor to thermal behavior during exercise and recovery", Am J Physiol Regul Integr Comp Physiol, 315(5), pp.925~933 (2018)
- Vergeer I, "Movement and stretching imagery during flexibility training", J Sport Sci, 24(2), pp.197~208 (2006)