The Cognitive Mechanisms of the Positivity Reactivity Effect on Word Recognition Memory

JOLs are widely used to measure metacognitive monitoring, yet their elicitation can reactively enhance memory-a phenomenon known as the positive reactivity effect. The enhanced engagement theory posits that JOLs improve memory by increasing attentional and cognitive engagement during encoding, but direct experimental evidence remains scarce. Across three experiments, we directly manipulated key components of learning engagement-attentional focus (via silent vs. aloud production), cognitive effort (via massed vs. spaced repetition), and motivational involvement (via standard vs. time-saving instructions)-while assessing their impact on the JOL reactivity effect in word recognition memory. Results consistently demonstrated robust positive reactivity effects, critically, the magnitude of these effects was significantly attenuated under high-engagement conditions (aloud reading, spaced learning, and heightened motivation). These converging findings provide the first direct, multi-method experimental support for the enhanced engagement theory, specifying that making JOLs benefit memory most when baseline engagement is low. The results delineate boundary conditions under which making JOLs yield beneficial effects and provide practical insights into leveraging JOLs to regulate engagement in real-world learning environments.

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Publication Details

Journal
Journal of Intelligence
Published
2026-03-11
DOI
https://doi.org/10.3390/jintelligence14030047
Primary Topic
Memory Processes and Influences
Type
article
Field-Weighted Citation Impact
0.00

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article

The Cognitive Mechanisms of the Positivity Reactivity Effect on Word Recognition Memory

Chao Yang, Baike Li
Journal of Intelligence
Memory Processes and Influences
article

The Cognitive Mechanisms of the Positivity Reactivity Effect on Word Recognition Memory

Chao Yang, Baike Li
article en

Abstract

JOLs are widely used to measure metacognitive monitoring, yet their elicitation can reactively enhance memory-a phenomenon known as the positive reactivity effect. The enhanced engagement theory posits that JOLs improve memory by increasing attentional and cognitive engagement during encoding, but direct experimental evidence remains scarce. Across three experiments, we directly manipulated key components of learning engagement-attentional focus (via silent vs. aloud production), cognitive effort (via massed vs. spaced repetition), and motivational involvement (via standard vs. time-saving instructions)-while assessing their impact on the JOL reactivity effect in word recognition memory. Results consistently demonstrated robust positive reactivity effects, critically, the magnitude of these effects was significantly attenuated under high-engagement conditions (aloud reading, spaced learning, and heightened motivation). These converging findings provide the first direct, multi-method experimental support for the enhanced engagement theory, specifying that making JOLs benefit memory most when baseline engagement is low. The results delineate boundary conditions under which making JOLs yield beneficial effects and provide practical insights into leveraging JOLs to regulate engagement in real-world learning environments.

Journal of IntelligenceVol. 14(3)
Liaoning Normal University (CN), Beijing Normal University (CN)
National Natural Science Foundation of China, Natural Science Foundation of Liaoning Province, Fundamental Research Funds for the Central Universities
Quality Education
Openalex Percentile: Top 31%
Memory Processes and Influences
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