Rapid adaptation of multisensory integration in vestibular pathways

Sensing gravity is vital for our perception of spatial orientation, the control of upright posture, and generation of our every day activities. When an astronaut transitions to microgravity or returns to earth, the vestibular input arising from self-motion will not match the brain’s expectation. Our...

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Main Authors: Jerome eCarriot, Mohsen eJamali, Kathleen eCullen
Format: Article
Language:English
Published: Frontiers Media S.A. 2015-04-01
Series:Frontiers in Systems Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fnsys.2015.00059/full
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spelling doaj-94f52a43c37947c4916fe5acde9870b82020-11-24T22:26:22ZengFrontiers Media S.A.Frontiers in Systems Neuroscience1662-51372015-04-01910.3389/fnsys.2015.00059140097Rapid adaptation of multisensory integration in vestibular pathwaysJerome eCarriot0Mohsen eJamali1Kathleen eCullen2McGillMcGillMcGillSensing gravity is vital for our perception of spatial orientation, the control of upright posture, and generation of our every day activities. When an astronaut transitions to microgravity or returns to earth, the vestibular input arising from self-motion will not match the brain’s expectation. Our recent neurophysiological studies have provided insight into how the nervous system rapidly reorganizes when vestibular input becomes unreliable by both 1) updating its internal model of the sensory consequences of motion and 2) up-weighting more reliable extra-vestibular information. These neural strategies, in turn, are linked to improvements in sensorimotor performance (e.g., gaze and postural stability, locomotion, orienting) and perception characterized by similar time courses. We suggest that furthering our understanding of the neural mechanisms that underlie sensorimotor adaptation will have important implications for optimizing training programs for astronauts before and after space exploration missions and for the design of goal-oriented rehabilitation for patients.http://journal.frontiersin.org/Journal/10.3389/fnsys.2015.00059/fullAdaptation, PhysiologicalAstronautsVestibular DiseasesVestibular NucleiVestibule, Labyrinthsensorimotor
collection DOAJ
language English
format Article
sources DOAJ
author Jerome eCarriot
Mohsen eJamali
Kathleen eCullen
spellingShingle Jerome eCarriot
Mohsen eJamali
Kathleen eCullen
Rapid adaptation of multisensory integration in vestibular pathways
Frontiers in Systems Neuroscience
Adaptation, Physiological
Astronauts
Vestibular Diseases
Vestibular Nuclei
Vestibule, Labyrinth
sensorimotor
author_facet Jerome eCarriot
Mohsen eJamali
Kathleen eCullen
author_sort Jerome eCarriot
title Rapid adaptation of multisensory integration in vestibular pathways
title_short Rapid adaptation of multisensory integration in vestibular pathways
title_full Rapid adaptation of multisensory integration in vestibular pathways
title_fullStr Rapid adaptation of multisensory integration in vestibular pathways
title_full_unstemmed Rapid adaptation of multisensory integration in vestibular pathways
title_sort rapid adaptation of multisensory integration in vestibular pathways
publisher Frontiers Media S.A.
series Frontiers in Systems Neuroscience
issn 1662-5137
publishDate 2015-04-01
description Sensing gravity is vital for our perception of spatial orientation, the control of upright posture, and generation of our every day activities. When an astronaut transitions to microgravity or returns to earth, the vestibular input arising from self-motion will not match the brain’s expectation. Our recent neurophysiological studies have provided insight into how the nervous system rapidly reorganizes when vestibular input becomes unreliable by both 1) updating its internal model of the sensory consequences of motion and 2) up-weighting more reliable extra-vestibular information. These neural strategies, in turn, are linked to improvements in sensorimotor performance (e.g., gaze and postural stability, locomotion, orienting) and perception characterized by similar time courses. We suggest that furthering our understanding of the neural mechanisms that underlie sensorimotor adaptation will have important implications for optimizing training programs for astronauts before and after space exploration missions and for the design of goal-oriented rehabilitation for patients.
topic Adaptation, Physiological
Astronauts
Vestibular Diseases
Vestibular Nuclei
Vestibule, Labyrinth
sensorimotor
url http://journal.frontiersin.org/Journal/10.3389/fnsys.2015.00059/full
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AT mohsenejamali rapidadaptationofmultisensoryintegrationinvestibularpathways
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