
This study aimed to investigate the influence of running on a treadmill on distance perception, by using a visually directed throwing task. Based upon previous research carried out in an open field that demonstrates that targets are perceived further away when running on a treadmill compared to when standing, we sought to examine if this effect persisted within a shorter range of distances, suitable for a throwing task. Fourteen athletes (five women and nine men) with normal or corrected-to-normal vision and good physical condition participated in the study. In Experiment 1, participants made indirect distance estimates of targets located at 6 m, revealing larger distance estimates during running. Experiment 2 utilized a throwing task to assess distance perception while running or standing static on a treadmill. Participants were required to throw balls into a hoop, aiming to put the ball through the hoop without visual feedback. The results showed that running on a treadmill influenced distance perception, leading to larger throws. These findings suggest that the perception of distance is a process that relies on perceptual cues and sensorimotor feedback. We propose a model based on the idea that perceived speed of locomotion is the result of mutually inhibitory interactions between visual and proprioceptive motor information.
Artificial intelligence, Cognitive Neuroscience, Social Sciences, FOS: Mechanical engineering, Visually directed throwing, Systems engineering, Task (project management), https://purl.org/becyt/ford/1.7, Engineering, Coaching Effectiveness, Cognitive psychology, Development of Expert Performance in Sports Psychology, Health Sciences, Multisensory integration, Developmental and Educational Psychology, Psychology, Orthopedics and Sports Medicine, https://purl.org/becyt/ford/1, Throwing, Self-movement, Treadmill, Visual perception, Communication, Life Sciences, Proprioception, Computer science, Mechanical engineering, FOS: Psychology, Computational Principles of Motor Control and Learning, Physical medicine and rehabilitation, Medicine, Sports Science and Performance Analysis, Perception, Computer vision, Distance preception, Physical therapy, Simulation, Neuroscience
Artificial intelligence, Cognitive Neuroscience, Social Sciences, FOS: Mechanical engineering, Visually directed throwing, Systems engineering, Task (project management), https://purl.org/becyt/ford/1.7, Engineering, Coaching Effectiveness, Cognitive psychology, Development of Expert Performance in Sports Psychology, Health Sciences, Multisensory integration, Developmental and Educational Psychology, Psychology, Orthopedics and Sports Medicine, https://purl.org/becyt/ford/1, Throwing, Self-movement, Treadmill, Visual perception, Communication, Life Sciences, Proprioception, Computer science, Mechanical engineering, FOS: Psychology, Computational Principles of Motor Control and Learning, Physical medicine and rehabilitation, Medicine, Sports Science and Performance Analysis, Perception, Computer vision, Distance preception, Physical therapy, Simulation, Neuroscience
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