Cognitive Neuroscience and Active Play: The Science Behind the Primal Play Method®
What role does cognitive neuroscience play in the Primal Play Method®?
Cognitive neuroscience helps explain how movement interacts with attention, perception, decision-making, executive function and motor learning. Within the Primal Play Method®, it helps shape HOW movement captures attention, WHAT challenges the brain and body together, and how repeated practice can support learning. Active play can combine physical effort with choice, adaptation, problem-solving, feedback and changing movement demands.
What is cognitive neuroscience?
Cognitive neuroscience studies the relationship between the nervous system and mental processes such as attention, perception, memory, learning, decision-making and behavioural control.
Movement depends on many of these processes.
When you catch an object, change direction, copy a movement, avoid an obstacle or respond to another person, your brain and body continually exchange information.
You perceive what is happening.
You select an action.
You organise movement.
You monitor the result.
You adjust what happens next.
This interaction between cognition and movement is one reason physical activity can involve much more than muscular work or energy expenditure. Some forms of movement place substantial demands on attention, inhibition, working memory, spatial awareness, reaction, coordination and decision-making.
Others are comparatively predictable. The cognitive demands depend on the task.
Why does cognitive neuroscience matter for physical activity?
Physical activity varies in how much information a person must process.
Walking along a familiar, empty path places different cognitive demands on you than navigating uneven terrain. Repeating a familiar exercise differs from responding to another person’s unpredictable movement. Throwing at a fixed target differs from catching an object whose speed and direction change.
A movement task can therefore be altered through its cognitive demand as well as its physical demand.
Relevant processes include:
Attention: selecting relevant information while filtering distractions.
Inhibitory control: suppressing an automatic or inappropriate response.
Working memory: temporarily holding and using information.
Cognitive flexibility: changing strategy or behaviour when circumstances change.
Perception: interpreting information from the body and environment.
Decision-making: selecting an action from available options.
Motor learning: improving the ability to perform a movement through practice and experience.
These processes frequently overlap during active play.
What does the evidence show?
Research supports a relationship between physical activity, exercise and several aspects of cognitive function.
A 2025 systematic umbrella review and meta-analysis synthesised evidence across populations and found that exercise was associated with improvements in general cognition, memory and executive function. Effects varied across populations, outcomes and intervention characteristics, and the size of the improvements was generally modest.[1]
This distinction matters. Physical activity does not produce a uniform cognitive response. Age, health status, activity type, intensity, duration, cognitive demand and study design can all influence the results.
Executive function
Executive functions help regulate goal-directed behaviour.
They commonly include:
working memory,
inhibitory control,
cognitive flexibility.
These processes are relevant when movement requires you to remember rules, resist an automatic response, switch between actions or adapt to changing information.
In children and adolescents, a 2024 systematic review and meta-analysis of 23 studies involving 2,857 participants reported a small positive overall effect of cognitively engaging physical activity on executive function. Improvements were reported particularly for inhibitory control and working memory, although heterogeneity between studies was high.[2]
A separate 2025 multilevel meta-analysis found that cognitively engaging physical activity may produce greater executive-function improvements than conventional physical activity in young people. The authors also identified possible publication bias and called for larger randomised trials.[3]
This means cognitively challenging movement is promising.
It does not establish that making every physical activity more cognitively complicated automatically produces greater benefit.
Movement and cognition across adulthood
Cognitive benefits are also relevant beyond childhood.
A 2024 systematic review and meta-analysis of randomised trials found that aerobic exercise improved aspects of executive function in healthy middle-aged and older adults, although the optimal prescription remains uncertain.[4]
A 2025 umbrella review of multicomponent exercise in older adults reported improvements in global cognition and executive function. The authors also found that much of the underlying review evidence was of low or critically low methodological quality, which limits confidence in precise effect estimates.[5]
The evidence therefore supports physical activity as part of cognitive health across the lifespan while leaving important questions about optimal mode, dose and cognitive complexity unresolved.
Movement is a learning problem.
Movement requires the nervous system to solve problems:
You need to estimate where your body is.
You interpret information from your environment.
You predict what may happen next.
You select a movement.
You compare the outcome with what you intended.
Repeated practice makes that process more effective.
Modern motor-learning research increasingly describes learning as involving several interacting processes rather than a single automatic mechanism.
A 2024 neuroscience review proposed three broad processes involved in sensorimotor learning:
reasoning, understanding relationships between actions and outcomes,
refinement, improving how a movement is controlled,
retrieval, recognising the context and accessing a suitable movement solution.[6]
Active play can create repeated opportunities for all three.
A person may discover how hard to throw an object.
Alter their stance after missing.
Remember a successful strategy.
Adapt again when the target moves.
The movement problem evolves through action and feedback.
How does cognitive neuroscience contribute to the Primal Play Method®?
The Primal Play Method® uses the framework:
WHY → HOW → WHAT → DOSE → REPEAT
Cognitive neuroscience contributes particularly to HOW, WHAT and REPEAT.
WHY
WHY establishes the purpose of movement.
The aim may include physical health, cognitive engagement, movement learning, confidence, functional ability or simply participation in an enjoyable activity.
Cognitive neuroscience helps explain why some movement experiences place greater demands on attention, decision-making and adaptation than others.
HOW
HOW considers the experience through which movement occurs.
A task can be:
predictable or unpredictable,
simple or complex,
self-paced or externally paced,
individual or interactive,
repetitive or variable,
instructed or exploratory.
These characteristics change the information a participant must perceive and process.
Consider two ways of performing the same physical action.
In the first, you repeatedly throw a ball at the same target from the same position.
In the second, you choose between several targets while responding to changing instructions, distances or another person’s movements.
Both involve throwing.
The second task usually contains greater perceptual and cognitive demand.
The Primal Play Method® can alter HOW a movement is experienced without losing sight of the physical objective.
WHAT
WHAT identifies the movement task.
Cognitive neuroscience encourages consideration of the mental demands embedded within that task.
A playful movement might require someone to:
remember a sequence,
respond to a visual cue,
change direction,
copy another person’s movement,
track a moving object,
choose between several options,
coordinate both sides of the body,
solve a movement problem,
adjust to unpredictable feedback.
This does not make every task cognitively superior. The cognitive demand needs to suit the person and purpose. Excessive complexity can interfere with movement quality, confidence or participation.
DOSE
Cognitive challenge also has a dose.
A task can be made harder by increasing:
the number of decisions,
the speed of information,
the number of rules,
movement complexity,
environmental variability,
memory demand,
uncertainty,
dual-task requirements.
Physical and cognitive difficulty should therefore be considered together. A physically demanding activity combined with a complex cognitive task may become inappropriate for someone with limited capacity, fatigue, pain or impaired balance. The Primal Play Method® treats challenge as something that can be adjusted, not simply increased.
REPEAT
Learning requires practice.
Practice also needs sufficient engagement for someone to continue participating.
Repeated movement allows the nervous system to refine actions and develop more effective solutions.
Repeated identical practice is only one option.
Motor-learning research also examines variable practice, feedback, task difficulty and environmental conditions.
The aim is to create enough challenge to promote learning while keeping the task achievable.
Challenge and motor learning
More difficulty does not automatically produce more learning.
The Challenge Point Framework proposes that learning depends partly on the relationship between task difficulty and the learner’s current ability.
A task that provides too little information may create little learning challenge.
A task that overwhelms the learner may impair performance and reduce useful learning.
A 2025 scoping review examining applications of the Challenge Point Framework found broad use of the concept across motor-learning research, while also highlighting gaps in evidence for practical application.[7]
This principle fits closely with the Primal Play Method®.
Challenge can be adapted through:
movement speed,
distance,
object size,
number of rules,
number of choices,
partner behaviour,
environmental unpredictability,
time pressure.
The goal is an appropriate challenge for the person in front of you.
Variation, exploration and movement solutions
Active play often contains variation.
A catch is slightly different each time.
Another person moves unpredictably.
The environment changes.
A participant tries different solutions.
Variation can provide useful information for learning, but more variation is not automatically better.
A 2025 systematic review found evidence that initial motor variability can be associated with subsequent learning and adaptation in some tasks, but the relationship varied by how variability was measured and by the type of learning task.[8]
Experimental evidence also suggests that excessive practice variability may impair learning under some conditions.[9]
The practical principle is therefore:
Variation should serve the learning goal.
For Primal Play Method® activities, this can mean changing one meaningful feature of a task rather than continually changing everything.
Feedback helps shape movement.
Movement produces feedback.
Some comes from the body.
You feel whether you lost balance.
You see whether an object reached its target.
You hear whether your foot contacted the floor.
Other feedback comes from a coach, partner or environment. Feedback can help someone recognise the relationship between an action and its result. Research in physical education suggests that feedback can support motor skill learning, although effects differ according to how and when feedback is delivered.[10]
The Primal Play Method® therefore uses feedback as information rather than constant correction.
Sometimes a participant needs instruction.
Sometimes the activity itself provides the answer.
A missed catch, unstable landing or successful change of direction creates information that can shape the next attempt.
Cognitive neuroscience and active play
Active play can combine physical and cognitive demands within the same activity.
Examples include:
Chasing games
A participant monitors another person’s movement, predicts direction and decides when to accelerate, stop or change direction.
This combines locomotion with perception and decision-making.
Throwing and catching
The participant estimates speed and trajectory, coordinates visual information with movement and adapts continually to the object.
Changing the distance, target or partner alters the challenge.
Movement-response games
A participant responds to a word, colour, gesture or sound with a particular movement.
Adding or changing rules can challenge inhibition and cognitive flexibility.
Partner mirroring
One person creates movement while another responds.
This requires attention, perception, coordination and adaptation.
Obstacle and exploration tasks
The participant chooses how to navigate a space, judging body position, distance and available movement options.
Each example combines physical action with information processing.
The relevant question is:
What does the participant need to perceive, decide, remember or adapt while moving?
Does active play improve executive function?
Evidence supports cognitively engaging physical activity as one potential way to improve executive function, particularly in children and adolescents.
The evidence does not establish active play as a unique treatment or prove that play itself produces superior cognitive outcomes.
The strongest research usually evaluates interventions described as:
cognitively engaging physical activity,
sports,
ball games,
coordination activities,
dual-task exercise,
exergaming.
Some of these share characteristics with active play.
For example, a 2024 network meta-analysis found that several forms of physical activity improved aspects of executive function in children and adolescents, with ball games performing strongly for some outcomes.[11]
A larger 2025 network meta-analysis also reported favourable results for ball games and combined cognitive-physical activities, although rankings between exercise types should be interpreted cautiously because network meta-analyses depend on the quality and comparability of the underlying trials.[12]
This supports cognitively engaging movement as a credible area of practice.
It does not justify describing every playful activity as “brain training”.
Cognitive neuroscience across the lifespan
The cognitive demands of movement can remain relevant throughout life.
Children
Movement can involve learning rules, controlling impulses, solving movement problems and coordinating increasingly complex actions.
Cognitively engaging physical activity has shown small-to-moderate benefits for some executive-function outcomes in research with children and adolescents.[2,3]
Adults
Adults continue to learn movement skills and adapt to changing physical environments.
Novel movement, coordination, sport and interactive activities can combine physical demand with cognitive engagement.
Older adults
Physical activity supports health and physical function and may contribute to cognitive health.
Activities combining multiple physical and cognitive components are being actively studied in older adults.
The evidence supports movement as part of healthy ageing while remaining insufficient to prescribe a single type of cognitively challenging activity as optimal for preventing cognitive decline.[5]
That distinction is particularly important when discussing dementia. Physical activity can form part of a wider risk-reduction strategy. It should not be presented as a guarantee against dementia or as a treatment that reverses neurodegenerative disease.
Cognitive neuroscience and exercise medicine
Exercise medicine asks what physical activity is appropriate for a person’s health, capacity and goals.
Cognitive demands may also require adaptation.
This becomes particularly relevant when someone experiences:
cognitive impairment,
neurological disease,
cancer-related cognitive changes,
fatigue,
pain,
fear of movement,
balance impairment,
medication effects,
reduced confidence,
deconditioning.
Adding a cognitive task can increase overall task difficulty even when the physical movement remains unchanged. The appropriate exercise prescription therefore considers both the body and the information-processing demands of the activity.
Brain health and healthy ageing
Physical activity is associated with cognitive health across adulthood.
The Primal Play Method® can add perceptual, decision-making, and coordination demands where appropriate for the individual.
Exercise oncology
Cancer and cancer treatments can affect fatigue, physical capacity and cognitive function.
Movement during or after treatment should therefore be adapted according to symptoms, treatment effects and individual capacity.
Cognitive complexity should never be added simply because “more challenge” sounds beneficial.
Long-term neurological conditions
Conditions such as Parkinson’s disease, multiple sclerosis and cognitive impairment can affect movement, attention, balance and information processing in different ways.
Playful movement may still be appropriate, but tasks require individual adaptation and clinical reasoning.
Cognitive neuroscience and physical activity adherence
Cognition also matters before movement begins.
People make decisions about:
whether to participate,
which activity to choose,
whether something feels achievable,
how much attention they are willing to give it,
whether they want to repeat it.
The Primal Play Method® therefore connects cognitive neuroscience with play psychology. A task may be scientifically interesting but remain too confusing, frustrating, or demanding to sustain.
The useful question is:
Does the challenge support engagement and learning at this person’s current level?
The aim is not maximal cognitive demand.
The aim is meaningful demand.
How cognitive neuroscience connects with the other scientific pillars
Cognitive neuroscience explains how perception, cognition, learning and movement interact.
The other three pillars address different parts of the Primal Play Method®.
Exercise physiology
Exercise Physiology and Active Play explains the physical stimulus created by movement and the adaptations that can develop through appropriate dose and repetition.
Its strongest contribution is to WHAT + DOSE + adaptation.
Evolutionary biology
Evolutionary Biology and Human Movement examines movement through the perspective of human evolutionary history, physical activity diversity and the relationship between human biology and modern environments.
Its strongest contribution is to WHY + WHAT.
Play psychology
Play Psychology and Physical Activity Adherence examines enjoyment, autonomy, competence, challenge, connection and motivation.
Its strongest contribution is to HOW + REPEAT.
Cognitive neuroscience sits particularly across:
HOW → WHAT → REPEAT
Together, the four scientific pillars help explain both the demands created by movement and the conditions that influence whether people learn, adapt and continue participating.
Frequently asked questions
What is cognitive neuroscience?
Cognitive neuroscience studies how the brain and nervous system relate to processes such as attention, perception, memory, learning, decision-making and behavioural control. In movement, it also helps explain motor learning, sensorimotor processing and how people adapt their actions through practice.
How does active play engage the brain?
Active play can require attention, perception, decision-making, memory, inhibition, coordination and adaptation. The cognitive demand depends on the activity. A predictable repeated movement usually creates a different cognitive challenge from an interactive game requiring rapid decisions and changing responses.
Can physical activity improve cognitive function?
Yes. Systematic reviews and meta-analyses indicate that exercise can improve aspects of general cognition, memory and executive function across different populations. The magnitude of benefit varies by population, activity, and cognitive outcome, and many unanswered questions remain about the optimal type and dose.[1]
Is cognitively challenging movement better than ordinary exercise?
Some evidence suggests cognitively engaging physical activity can produce greater improvements in certain executive functions, particularly among children and adolescents. The evidence remains heterogeneous and does not show that greater cognitive complexity is always better.
Does active play increase neuroplasticity?
Neuroplasticity describes the nervous system’s capacity to change through experience and learning. Repeated movement practice involves neural adaptation, and exercise can influence biological processes associated with brain function. Current evidence does not justify claiming that any specific active-play activity uniquely “boosts neuroplasticity” or rewires the brain.
The Primal Play Method® framework
Cognitive neuroscience provides one of the four scientific foundations of the Primal Play Method®.
It helps ask:
HOW much information does the participant need to process?
WHAT does the movement require them to perceive, decide and adapt?
How can repetition support learning without making movement unnecessarily predictable?
The Primal Play Method® combines these questions with exercise physiology, evolutionary biology and play psychology.
The result is a framework that considers the physical stimulus, the movement problem and the experience of the person performing it.
References
Singh, B., Bennett, H., Miatke, A., Dumuid, D., Curtis, R., Ferguson, T., Brinsley, J., Szeto, K., Petersen, J. M., Gough, C., Eglitis, E., Simpson, C. E. M., Ekegren, C. L., Smith, A. E., Erickson, K. I., & Maher, C. (2025). Effectiveness of exercise for improving cognition, memory and executive function: A systematic umbrella review and meta-meta-analysis. British Journal of Sports Medicine, 59(12), 866–876. https://doi.org/10.1136/bjsports-2024-108589
Mao, F., Huang, F., Zhao, S., & Fang, Q. (2024). Effects of cognitively engaging physical activity interventions on executive function in children and adolescents: A systematic review and meta-analysis. Frontiers in Psychology, 15, Article 1454447. https://doi.org/10.3389/fpsyg.2024.1454447
Teng, G., Xia, H., Li, Q., & Chen, A. (2025). Improving executive function in children and adolescents with cognitive-engaging physical activity: A systematic review and multilevel meta-analysis. Journal of Developmental & Behavioral Pediatrics, 46(1), e76–e82. https://doi.org/10.1097/DBP.0000000000001330
Ye, M., Song, T., Xia, H., Hou, Y., & Chen, A. (2024). Effects of aerobic exercise on executive function of healthy middle-aged and older adults: A systematic review and meta-analysis. International Journal of Nursing Studies, 160, Article 104912. https://doi.org/10.1016/j.ijnurstu.2024.104912
Liang, W., Liu, C., Yan, X., Xu, S., Dai, J., & Huang, W. (2025). The efficacy versus evidence quality of multicomponent exercise for cognitive health in older adults: An umbrella review. Frontiers in Aging Neuroscience, 17, Article 1719179. https://doi.org/10.3389/fnagi.2025.1719179
Tsay, J. S., Kim, H. E., McDougle, S. D., Taylor, J. A., Haith, A., Avraham, G., Krakauer, J. W., Collins, A. G. E., & Ivry, R. B. (2024). Fundamental processes in sensorimotor learning: Reasoning, refinement, and retrieval. eLife, 13, Article e91839. https://doi.org/10.7554/eLife.91839
Thomas, A., Paul, L., Rasenyalo, S., & Jones, B. (2025). Challenge accepted: A systematic scoping review of the applications of the Challenge Point Framework. Journal of Motor Behavior, 57(4), 444–462. https://doi.org/10.1080/00222895.2025.2508283
López-Fernández, M., Sabido, R., Caballero, C., & Moreno, F. J. (2025). Relationship between initial motor variability and learning and adaptive ability: A systematic review. Neuroscience, 565, 301–311. https://doi.org/10.1016/j.neuroscience.2024.10.052
Caballero, C., Barbado, D., Peláez, M., & Moreno, F. J. (2024). Applying different levels of practice variability for motor learning: More is not better. PeerJ, 12, Article e17575. https://doi.org/10.7717/peerj.17575
Han, Y., Syed Ali, S. K. B., & Ji, L. (2022). Feedback for promoting motor skill learning in physical education: A trial sequential meta-analysis. International Journal of Environmental Research and Public Health, 19(22), Article 15361. https://doi.org/10.3390/ijerph192215361
Wang, J., Yang, Y., Li, L., Yang, X., Guo, X., Yuan, X., Xie, T., Yang, K., & Zhuang, J. (2024). Comparative efficacy of physical activity types on executive functions in children and adolescents: A network meta-analysis of randomized controlled trials. Journal of Science and Medicine in Sport, 27(3), 187–196. https://doi.org/10.1016/j.jsams.2023.11.006
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Published: July 2026
Reviewed / updated: August 2026
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