Response suppression delays the planning of subsequent stimulus-driven saccades.

The completion of an antisaccade selectively increases the reaction tiME (RT) of a subsequent prosaccade: a result that has been interpreted to reflect the residual inhibition of stimulus-driven saccade networks [1], [2]. In the present investigation we sought to determine whether the increase in pr...

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Autores principales: Jeffrey Weiler, Trina Mitchell, Matthew Heath
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Publicado: Public Library of Science (PLoS) 2014
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Acceso en línea:https://doaj.org/article/c84de49fe13c444589dd886df8d9badc
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spelling oai:doaj.org-article:c84de49fe13c444589dd886df8d9badc2021-11-18T08:36:25ZResponse suppression delays the planning of subsequent stimulus-driven saccades.1932-620310.1371/journal.pone.0086408https://doaj.org/article/c84de49fe13c444589dd886df8d9badc2014-01-01T00:00:00Zhttps://www.ncbi.nlm.nih.gov/pmc/articles/pmid/24466076/pdf/?tool=EBIhttps://doaj.org/toc/1932-6203The completion of an antisaccade selectively increases the reaction tiME (RT) of a subsequent prosaccade: a result that has been interpreted to reflect the residual inhibition of stimulus-driven saccade networks [1], [2]. In the present investigation we sought to determine whether the increase in prosaccade RT is contingent on the constituent antisaccade planning processes of response suppression and vector inversion or is limited to response suppression. To that end, in one block participants alternated between pro- and antisaccades after every second trial (task-switching block), and in another block participants completed a series of prosaccades that were randomly (and infrequently) interspersed with no-go catch-trials (go/no-go block). Notably, such a design provides a framework for disentangling whether response suppression and/or vector inversion delays the planning of subsequent prosaccades. As expected, results for the task-switching block showed that antisaccades selectively increased the RTs of subsequent prosaccades. In turn, results for the go/no-go block showed that prosaccade RTs were increased when preceded by a no-go catch-trial. Moreover, the magnitude of the RT 'cost' was equivalent across the task-switching and go/no-go blocks. That prosaccades preceded by an antisaccade or a no-go catch-trial produced equivalent RT costs indicates that the conjoint processes of response suppression and vector inversion do not drive the inhibition of saccade planning mechanisms. Rather, the present findings indicate that a general consequence of response suppression is a residual inhibition of stimulus-driven saccade networks.Jeffrey WeilerTrina MitchellMatthew HeathPublic Library of Science (PLoS)articleMedicineRScienceQENPLoS ONE, Vol 9, Iss 1, p e86408 (2014)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Jeffrey Weiler
Trina Mitchell
Matthew Heath
Response suppression delays the planning of subsequent stimulus-driven saccades.
description The completion of an antisaccade selectively increases the reaction tiME (RT) of a subsequent prosaccade: a result that has been interpreted to reflect the residual inhibition of stimulus-driven saccade networks [1], [2]. In the present investigation we sought to determine whether the increase in prosaccade RT is contingent on the constituent antisaccade planning processes of response suppression and vector inversion or is limited to response suppression. To that end, in one block participants alternated between pro- and antisaccades after every second trial (task-switching block), and in another block participants completed a series of prosaccades that were randomly (and infrequently) interspersed with no-go catch-trials (go/no-go block). Notably, such a design provides a framework for disentangling whether response suppression and/or vector inversion delays the planning of subsequent prosaccades. As expected, results for the task-switching block showed that antisaccades selectively increased the RTs of subsequent prosaccades. In turn, results for the go/no-go block showed that prosaccade RTs were increased when preceded by a no-go catch-trial. Moreover, the magnitude of the RT 'cost' was equivalent across the task-switching and go/no-go blocks. That prosaccades preceded by an antisaccade or a no-go catch-trial produced equivalent RT costs indicates that the conjoint processes of response suppression and vector inversion do not drive the inhibition of saccade planning mechanisms. Rather, the present findings indicate that a general consequence of response suppression is a residual inhibition of stimulus-driven saccade networks.
format article
author Jeffrey Weiler
Trina Mitchell
Matthew Heath
author_facet Jeffrey Weiler
Trina Mitchell
Matthew Heath
author_sort Jeffrey Weiler
title Response suppression delays the planning of subsequent stimulus-driven saccades.
title_short Response suppression delays the planning of subsequent stimulus-driven saccades.
title_full Response suppression delays the planning of subsequent stimulus-driven saccades.
title_fullStr Response suppression delays the planning of subsequent stimulus-driven saccades.
title_full_unstemmed Response suppression delays the planning of subsequent stimulus-driven saccades.
title_sort response suppression delays the planning of subsequent stimulus-driven saccades.
publisher Public Library of Science (PLoS)
publishDate 2014
url https://doaj.org/article/c84de49fe13c444589dd886df8d9badc
work_keys_str_mv AT jeffreyweiler responsesuppressiondelaystheplanningofsubsequentstimulusdrivensaccades
AT trinamitchell responsesuppressiondelaystheplanningofsubsequentstimulusdrivensaccades
AT matthewheath responsesuppressiondelaystheplanningofsubsequentstimulusdrivensaccades
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