Neural and computational evidence for a predictive learning account of the testing effect

Testing enhances memory more than studying. Although numerous studies have demonstrated the robustness of this classic effect, its neural and computational origin remains debated. Predictive learning is a potential mechanism behind this phenomenon: Because predictions and prediction errors (mismatch between predictions and feedback) are more likely to be generated in testing (relative to in studying), testing can benefit more from predictive learning. We shed light on the testing effect from a multilevel analysis perspective via a combination of cognitive neuroscience experiments (fMRI) and computational modeling. Behaviorally and computationally, only a model incorporating predictive learning can account for the full breadth of behavioral patterns and the robust testing effect. At the neural level, testing and prediction error both activate the canonical reward-related brain areas in the ventral striatum, insula, and midbrain. Crucially, back sorting analysis revealed that activation in the ventral striatum, insula, and midbrain can enhance declarative memory. These results provide strong and converging evidence for a predictive learning account of the testing effect.

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Publication Details

Journal
Proceedings of the National Academy of Sciences
Published
2025-08-08
DOI
https://doi.org/10.1073/pnas.2506530122
Primary Topic
Neural and Behavioral Psychology Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Neural and computational evidence for a predictive learning account of the testing effect

Pieter Verbeke, Haopeng Chen, Stefania Mattioni, Tom Verguts et al.
Proceedings of the National Academy of Sciences
Neural and Behavioral Psychology Studies
article

Neural and computational evidence for a predictive learning account of the testing effect

Pieter Verbeke, Haopeng Chen, Stefania Mattioni, Tom Verguts, Cristian Buc Calderon
article en

Abstract

Testing enhances memory more than studying. Although numerous studies have demonstrated the robustness of this classic effect, its neural and computational origin remains debated. Predictive learning is a potential mechanism behind this phenomenon: Because predictions and prediction errors (mismatch between predictions and feedback) are more likely to be generated in testing (relative to in studying), testing can benefit more from predictive learning. We shed light on the testing effect from a multilevel analysis perspective via a combination of cognitive neuroscience experiments (fMRI) and computational modeling. Behaviorally and computationally, only a model incorporating predictive learning can account for the full breadth of behavioral patterns and the robust testing effect. At the neural level, testing and prediction error both activate the canonical reward-related brain areas in the ventral striatum, insula, and midbrain. Crucially, back sorting analysis revealed that activation in the ventral striatum, insula, and midbrain can enhance declarative memory. These results provide strong and converging evidence for a predictive learning account of the testing effect.

Proceedings of the National Academy of SciencesVol. 122(32)
HOGENT University of Applied Sciences and Arts (BE), University College West Flanders (BE), Ghent University Hospital (BE), Ghent University (BE), Agencia Nacional de Investigación y Desarrollo (CL)
China Scholarship Council
Quality Education
Openalex Percentile: Top 80%
Neural and Behavioral Psychology Studies
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