Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.

Here we examined neural substrates for physically and observationally learning to construct novel objects, and characterized brain regions associated with each kind of learning using fMRI. Each participant was assigned a training partner, and for five consecutive days practiced tying one group of kn...

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Main Authors: Emily S Cross, Antonia F de C Hamilton, Nichola Rice Cohen, Scott T Grafton
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2017-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC5638238?pdf=render
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spelling doaj-edd12cb17e774bc1a26e8425a1e26fff2020-11-25T02:08:05ZengPublic Library of Science (PLoS)PLoS ONE1932-62032017-01-011210e018504410.1371/journal.pone.0185044Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.Emily S CrossAntonia F de C HamiltonNichola Rice CohenScott T GraftonHere we examined neural substrates for physically and observationally learning to construct novel objects, and characterized brain regions associated with each kind of learning using fMRI. Each participant was assigned a training partner, and for five consecutive days practiced tying one group of knots ("tied" condition) or watched their partner tie different knots ("watched" condition) while a third set of knots remained untrained. Functional MRI was obtained prior to and immediately following the week of training while participants performed a visual knot-matching task. After training, a portion of left superior parietal lobule demonstrated a training by scan session interaction. This means this parietal region responded selectively to knots that participants had physically learned to tie in the post-training scan session but not the pre-training scan session. A conjunction analysis on the post-training scan data showed right intraparietal sulcus and right dorsal premotor cortex to respond when viewing images of knots from the tied and watched conditions compared to knots that were untrained during the post-training scan session. This suggests that these brain areas track both physical and observational learning. Together, the data provide preliminary evidence of engagement of brain regions associated with hand-object interactions when viewing objects associated with physical experience, and with observational experience without concurrent physical practice.http://europepmc.org/articles/PMC5638238?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Emily S Cross
Antonia F de C Hamilton
Nichola Rice Cohen
Scott T Grafton
spellingShingle Emily S Cross
Antonia F de C Hamilton
Nichola Rice Cohen
Scott T Grafton
Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
PLoS ONE
author_facet Emily S Cross
Antonia F de C Hamilton
Nichola Rice Cohen
Scott T Grafton
author_sort Emily S Cross
title Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
title_short Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
title_full Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
title_fullStr Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
title_full_unstemmed Learning to tie the knot: The acquisition of functional object representations by physical and observational experience.
title_sort learning to tie the knot: the acquisition of functional object representations by physical and observational experience.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2017-01-01
description Here we examined neural substrates for physically and observationally learning to construct novel objects, and characterized brain regions associated with each kind of learning using fMRI. Each participant was assigned a training partner, and for five consecutive days practiced tying one group of knots ("tied" condition) or watched their partner tie different knots ("watched" condition) while a third set of knots remained untrained. Functional MRI was obtained prior to and immediately following the week of training while participants performed a visual knot-matching task. After training, a portion of left superior parietal lobule demonstrated a training by scan session interaction. This means this parietal region responded selectively to knots that participants had physically learned to tie in the post-training scan session but not the pre-training scan session. A conjunction analysis on the post-training scan data showed right intraparietal sulcus and right dorsal premotor cortex to respond when viewing images of knots from the tied and watched conditions compared to knots that were untrained during the post-training scan session. This suggests that these brain areas track both physical and observational learning. Together, the data provide preliminary evidence of engagement of brain regions associated with hand-object interactions when viewing objects associated with physical experience, and with observational experience without concurrent physical practice.
url http://europepmc.org/articles/PMC5638238?pdf=render
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