Electrocortical correlates of attention differentiate individual capacity in associative learning

Abstract Associative learning abilities vary considerably among individuals, with attentional processes suggested to play a role in these variations. However, the relationship between attentional processes and individual differences in associative learning remains unclear, and whether these variatio...

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Main Authors: Elsa Raynal, Kate Schipper, Catherine Brandner, Paolo Ruggeri, Jérôme Barral
Format: Article
Language:English
Published: Nature Portfolio 2024-03-01
Series:npj Science of Learning
Online Access:https://doi.org/10.1038/s41539-024-00236-8
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author Elsa Raynal
Kate Schipper
Catherine Brandner
Paolo Ruggeri
Jérôme Barral
author_facet Elsa Raynal
Kate Schipper
Catherine Brandner
Paolo Ruggeri
Jérôme Barral
author_sort Elsa Raynal
collection DOAJ
description Abstract Associative learning abilities vary considerably among individuals, with attentional processes suggested to play a role in these variations. However, the relationship between attentional processes and individual differences in associative learning remains unclear, and whether these variations reflect in event-related potentials (ERPs) is unknown. This study aimed to investigate the relationship between attentional processes and associative learning by recording electrocortical activity of 38 young adults (18–32 years) during an associative learning task. Learning performance was assessed using the signal detection index d’. EEG topographic analyses and source localizations were applied to examine the neural correlates of attention and associative learning. Results revealed that better learning scores are associated with (1) topographic differences during early (126–148 ms) processing of the stimulus, coinciding with a P1 ERP component, which corresponded to a participation of the precuneus (BA 7), (2) topographic differences at 573–638 ms, overlapping with an increase of global field power at 530–600 ms, coinciding with a P3b ERP component and localized within the superior frontal gyrus (BA11) and (3) an increase of global field power at 322–507 ms, underlay by a stronger participation of the middle occipital gyrus (BA 19). These insights into the neural mechanisms underlying individual differences in associative learning suggest that better learners engage attentional processes more efficiently than weaker learners, making more resources available and displaying increased functional activity in areas involved in early attentional processes (BA7) and decision-making processes (BA11) during an associative learning task. This highlights the crucial role of attentional mechanisms in individual learning variability.
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spelling doaj.art-4505a0ba5a4b447c8208045391d95dec2024-03-24T12:10:52ZengNature Portfolionpj Science of Learning2056-79362024-03-019111110.1038/s41539-024-00236-8Electrocortical correlates of attention differentiate individual capacity in associative learningElsa Raynal0Kate Schipper1Catherine Brandner2Paolo Ruggeri3Jérôme Barral4Brain Electrophysiology Attention Movement Laboratory, Institute of Psychology, University of LausanneBrain Electrophysiology Attention Movement Laboratory, Institute of Psychology, University of LausanneBrain Electrophysiology Attention Movement Laboratory, Institute of Psychology, University of LausanneBrain Electrophysiology Attention Movement Laboratory, Institute of Psychology, University of LausanneBrain Electrophysiology Attention Movement Laboratory, Institute of Psychology, University of LausanneAbstract Associative learning abilities vary considerably among individuals, with attentional processes suggested to play a role in these variations. However, the relationship between attentional processes and individual differences in associative learning remains unclear, and whether these variations reflect in event-related potentials (ERPs) is unknown. This study aimed to investigate the relationship between attentional processes and associative learning by recording electrocortical activity of 38 young adults (18–32 years) during an associative learning task. Learning performance was assessed using the signal detection index d’. EEG topographic analyses and source localizations were applied to examine the neural correlates of attention and associative learning. Results revealed that better learning scores are associated with (1) topographic differences during early (126–148 ms) processing of the stimulus, coinciding with a P1 ERP component, which corresponded to a participation of the precuneus (BA 7), (2) topographic differences at 573–638 ms, overlapping with an increase of global field power at 530–600 ms, coinciding with a P3b ERP component and localized within the superior frontal gyrus (BA11) and (3) an increase of global field power at 322–507 ms, underlay by a stronger participation of the middle occipital gyrus (BA 19). These insights into the neural mechanisms underlying individual differences in associative learning suggest that better learners engage attentional processes more efficiently than weaker learners, making more resources available and displaying increased functional activity in areas involved in early attentional processes (BA7) and decision-making processes (BA11) during an associative learning task. This highlights the crucial role of attentional mechanisms in individual learning variability.https://doi.org/10.1038/s41539-024-00236-8
spellingShingle Elsa Raynal
Kate Schipper
Catherine Brandner
Paolo Ruggeri
Jérôme Barral
Electrocortical correlates of attention differentiate individual capacity in associative learning
npj Science of Learning
title Electrocortical correlates of attention differentiate individual capacity in associative learning
title_full Electrocortical correlates of attention differentiate individual capacity in associative learning
title_fullStr Electrocortical correlates of attention differentiate individual capacity in associative learning
title_full_unstemmed Electrocortical correlates of attention differentiate individual capacity in associative learning
title_short Electrocortical correlates of attention differentiate individual capacity in associative learning
title_sort electrocortical correlates of attention differentiate individual capacity in associative learning
url https://doi.org/10.1038/s41539-024-00236-8
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AT paoloruggeri electrocorticalcorrelatesofattentiondifferentiateindividualcapacityinassociativelearning
AT jeromebarral electrocorticalcorrelatesofattentiondifferentiateindividualcapacityinassociativelearning