Neural Mechanisms of Illusory Motion: Evidence from ERP Study

ERPs were used to examine the neural correlates of illusory motion, by presenting the Rice Wave illusion (CI), its two variants (WI and NI) and a real motion video (RM). Results showed that: Firstly, RM elicited a more negative deflection than CI, NI and WI between 200–350ms. Secondly, between 500–6...

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Main Author: Xu Y. A. N. Yun
Format: Article
Language:English
Published: SAGE Publishing 2011-05-01
Series:i-Perception
Online Access:https://doi.org/10.1068/ic390
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spelling doaj-0482f9fc5b08418ab2c3653cfb7d2a8b2020-11-25T03:39:28ZengSAGE Publishingi-Perception2041-66952011-05-01210.1068/ic39010.1068_ic390Neural Mechanisms of Illusory Motion: Evidence from ERP StudyXu Y. A. N. Yun0Department of Southwest University, School of psychology, Southwest UniversityERPs were used to examine the neural correlates of illusory motion, by presenting the Rice Wave illusion (CI), its two variants (WI and NI) and a real motion video (RM). Results showed that: Firstly, RM elicited a more negative deflection than CI, NI and WI between 200–350ms. Secondly, between 500–600ms, CI elicited a more positive deflection than NI and WI, and RM elicited a more positive deflection than CI, what's more interesting was the sequential enhancement of brain activity with the corresponding motion strength. We inferred that the former component might reflect the successful encoding of the local motion signals in detectors at the lower stage; while the latter one might be involved in the intensive representations of visual input in real/illusory motion perception, this was the whole motion-signal organization in the later stage of motion perception. Finally, between 1185–1450 ms, a significant positive component was found between illusory/real motion tasks than NI (no motion). Overall, we demonstrated that there was a stronger deflection under the corresponding lager motion strength. These results reflected not only the different temporal patterns between illusory and real motion but also extending to their distinguishing working memory representation and storage.https://doi.org/10.1068/ic390
collection DOAJ
language English
format Article
sources DOAJ
author Xu Y. A. N. Yun
spellingShingle Xu Y. A. N. Yun
Neural Mechanisms of Illusory Motion: Evidence from ERP Study
i-Perception
author_facet Xu Y. A. N. Yun
author_sort Xu Y. A. N. Yun
title Neural Mechanisms of Illusory Motion: Evidence from ERP Study
title_short Neural Mechanisms of Illusory Motion: Evidence from ERP Study
title_full Neural Mechanisms of Illusory Motion: Evidence from ERP Study
title_fullStr Neural Mechanisms of Illusory Motion: Evidence from ERP Study
title_full_unstemmed Neural Mechanisms of Illusory Motion: Evidence from ERP Study
title_sort neural mechanisms of illusory motion: evidence from erp study
publisher SAGE Publishing
series i-Perception
issn 2041-6695
publishDate 2011-05-01
description ERPs were used to examine the neural correlates of illusory motion, by presenting the Rice Wave illusion (CI), its two variants (WI and NI) and a real motion video (RM). Results showed that: Firstly, RM elicited a more negative deflection than CI, NI and WI between 200–350ms. Secondly, between 500–600ms, CI elicited a more positive deflection than NI and WI, and RM elicited a more positive deflection than CI, what's more interesting was the sequential enhancement of brain activity with the corresponding motion strength. We inferred that the former component might reflect the successful encoding of the local motion signals in detectors at the lower stage; while the latter one might be involved in the intensive representations of visual input in real/illusory motion perception, this was the whole motion-signal organization in the later stage of motion perception. Finally, between 1185–1450 ms, a significant positive component was found between illusory/real motion tasks than NI (no motion). Overall, we demonstrated that there was a stronger deflection under the corresponding lager motion strength. These results reflected not only the different temporal patterns between illusory and real motion but also extending to their distinguishing working memory representation and storage.
url https://doi.org/10.1068/ic390
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