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Cognitively Enriched School-Based Physical Activity in Physical Education: Changes in Cognitive Performance and Mastery Motivation in Adolescents

This six-week controlled study involving 56 adolescents demonstrates that integrating cognitively enriched movement tasks into regular physical education lessons significantly improves cognitive performance and mastery motivation compared to standard curriculum instruction.

Original authors: Dóra Pásztor-Horváth, József Bognár

Published 2026-10-19
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Original authors: Dóra Pásztor-Horváth, József Bognár

Original paper licensed under CC BY 4.0 (https://creativecommons.org/licenses/by/4.0/). ⚕️ This is an AI-generated explanation of a preprint that has not been peer-reviewed. It is not medical advice. Do not make health decisions based on this content. Read full disclaimer

Technical Summary: Cognitively Enriched School-Based Physical Activity in Physical Education

Problem Statement
Adolescence is a developmental period characterized by declining physical activity levels and increasing cognitive and motivational demands in school settings. While Physical Education (PE) offers a structured environment for physical activity, traditional curricula often prioritize motor practice over cognitive engagement. Previous research suggests that physical activity can support cognitive functioning, yet the specific impact of cognitively engaging movement tasks—those combining motor execution with attention, memory, decision-making, and problem-solving—on both cognitive performance and mastery motivation within routine PE lessons remains under-explored. The study addresses whether integrating such cognitively enriched tasks into standard PE lessons produces differential changes in cognitive performance and mastery motivation compared to standard curriculum delivery.

Methodology
The study employed a six-week pre-test–post-test controlled design involving 56 students (aged 12–15) from four intact Grade 7 and 8 classes in a single public elementary school in Central Europe.

  • Design: Classes were randomly assigned to experimental or control conditions within each grade. The design utilized class-level randomization, meaning the analysis focused on characterizing differential group trajectories rather than estimating a definitive intervention-specific causal effect.
  • Intervention: Experimental groups completed a 10–15-minute cognitively enriched movement block during five weekly PE lessons (30 total sessions). These tasks integrated motor execution with cognitive demands such as remembering rules/sequences, responding to changing stimuli, divided attention, spatial orientation, and strategy use. The block was embedded within the warm-up, main activity, or cool-down phases without replacing the standard curriculum.
  • Control: Control groups followed the usual PE curriculum with their regular teachers, who were instructed not to use the cognitively enriched exercises.
  • Measures:
    • Cognitive Performance: Assessed via the Cognitive Profile Test (five paper-and-pencil subtests: number sequence, calculation, word comprehension, figures, visual memory) yielding an overall score (0–50).
    • Mastery Motivation: Assessed via the 42-item Hungarian student version of the Dimensions of Mastery Questionnaire (DMQ), yielding seven subscales (cognitive persistence, motor persistence, social persistence with adults/peers, mastery pleasure, intellectual self-evaluation, failure-related response).
  • Analysis: Separate 2 × 4 repeated-measures ANOVAs (Time × Group) were conducted for all outcomes. The Benjamini–Hochberg procedure was applied to control the false discovery rate at 5% for multiple comparisons. Follow-up paired-samples t-tests with Cohen's d_z characterized within-group changes.

Key Results
Following the six-week intervention, significant Time × Group interactions were observed, indicating that pre-to-post change patterns differed across the four study groups.

  • Cognitive Performance: Significant interactions were found for four of five cognitive subtests (number sequence, calculation, figures, visual memory) and the overall cognitive performance score. Word comprehension did not show a significant interaction.
    • Within-Group Changes: The Grade 7 experimental group showed robust gains in visual memory and overall cognitive performance. The Grade 8 experimental group showed robust gains in number sequence, calculation, visual memory, and overall cognitive performance. No control group showed significant within-group changes after adjustment.
  • Mastery Motivation: Significant Time × Group interactions were observed for all seven mastery-motivation domains.
    • Within-Group Changes: The Grade 7 experimental group showed robust increases in cognitive and motor persistence. The Grade 8 experimental group showed robust increases in cognitive persistence, social persistence (with adults and peers), and failure-related response. No control group showed significant within-group changes after adjustment.

Key Contributions
The study contributes to the literature by demonstrating that cognitively enriched movement tasks can be successfully embedded into routine PE lessons without displacing standard curriculum content. It provides evidence that such integration is associated with differential improvements in specific cognitive domains (particularly visual memory, working memory, and calculation) and motivational constructs (persistence, social persistence, and response to failure) across different grade levels. The research highlights that the "cognitive quality" of movement, not just the quantity of physical activity, may be a critical factor in school-based health promotion.

Significance and Claims
The authors claim that these findings support the potential value of integrating cognitive challenges into school PE to enhance both cognitive performance and mastery motivation. The study suggests that brief, structured cognitively enriched blocks (10–15 minutes) can be a scalable model for adding cognitive and motivational value to habitual school-time physical activity.

However, the paper maintains a modest tone regarding its conclusions. The authors explicitly state that the findings should be interpreted as preliminary and do not constitute definitive evidence of intervention-specific causal effects. This caution is due to several limitations:

  • The small sample size from a single school.
  • The use of intact classes, which prevents the separation of class-level characteristics from condition effects.
  • The lack of objective measures for physical activity intensity, physiological load, or intervention fidelity.
  • The use of the same test versions for pre- and post-testing, leaving practice effects as a potential confound.

Consequently, the authors conclude that while the results are promising, larger, adequately powered cluster-randomized studies with objective physiological measures, alternative test forms, and longer-term follow-ups are necessary to establish effectiveness, mechanisms, and sustainability.

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