Wakeful targeted memory reactivation during short rest periods modulates early motor learning

This study investigated whether wakeful targeted memory reactivation (TMR) during short rest intervals improves motor learning. Participants were randomly assigned to three groups and performed a sequential key-press task under each condition: (1) TMR<sub>regular</sub> group: auditory cues played at the same speed as the previous task, (2) TMR<sub>fast</sub> group: auditory cues played 1.3 times faster, and (3) TMR<sub>random</sub> group: auditory cues randomized in pitch. To examine the motor learning effect of cue structure, we compared motor learning across three groups (TMR<sub>regular</sub>, TMR<sub>fast</sub>, and TMR<sub>random</sub>). The TMR<sub>fast</sub> group enhanced early learning gains compared with the TMR<sub>regular</sub> group. Electroencephalogram data revealed stronger functional connectivity centered on the lateral orbitofrontal cortex (lOFC) in the TMR<sub>fast</sub> group than in the TMR<sub>regular</sub> group. Together, these findings suggest that wakeful TMR can enhance early motor learning depending on cue timing and structure, highlighting the importance of optimizing sensory parameters for learning improvement.

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Publication Details

Journal
npj Science of Learning
Published
2026-03-02
DOI
https://doi.org/10.1038/s41539-026-00407-9
Primary Topic
Motor Control and Adaptation
Type
article
Field-Weighted Citation Impact
0.00

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article

Wakeful targeted memory reactivation during short rest periods modulates early motor learning

T. Shinohara, Koki Arima, Yuhi Takeo, Takashi Ikeda et al.
npj Science of Learning
Motor Control and Adaptation
article

Wakeful targeted memory reactivation during short rest periods modulates early motor learning

T. Shinohara, Koki Arima, Yuhi Takeo, Takashi Ikeda, Ryushin Kawasoe, Hisato Sugata, Kana Matsumura
article en

Abstract

This study investigated whether wakeful targeted memory reactivation (TMR) during short rest intervals improves motor learning. Participants were randomly assigned to three groups and performed a sequential key-press task under each condition: (1) TMR<sub>regular</sub> group: auditory cues played at the same speed as the previous task, (2) TMR<sub>fast</sub> group: auditory cues played 1.3 times faster, and (3) TMR<sub>random</sub> group: auditory cues randomized in pitch. To examine the motor learning effect of cue structure, we compared motor learning across three groups (TMR<sub>regular</sub>, TMR<sub>fast</sub>, and TMR<sub>random</sub>). The TMR<sub>fast</sub> group enhanced early learning gains compared with the TMR<sub>regular</sub> group. Electroencephalogram data revealed stronger functional connectivity centered on the lateral orbitofrontal cortex (lOFC) in the TMR<sub>fast</sub> group than in the TMR<sub>regular</sub> group. Together, these findings suggest that wakeful TMR can enhance early motor learning depending on cue timing and structure, highlighting the importance of optimizing sensory parameters for learning improvement.

npj Science of Learning
Kanazawa University (JP), Osaka Gakuin University (JP), Oita University (JP), Oita University Hospital (JP), Oita University of Nursing and Health Sciences (JP), The University of Osaka (JP)
Japan Society for the Promotion of Science
Openalex Percentile: Top 40%
Motor Control and Adaptation
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