The Role of Movement in Academic Success

There is a persistent assumption embedded in the design of most school days: that sitting still is the appropriate posture for learning. Desks face forwards. Movement is confined to breaks. Physical education occupies one or two timetable slots per week and is rarely treated as having anything to do with what happens in mathematics or English. The implicit message — to children, to teachers, and to the wider educational culture — is that the body and the mind operate in separate registers, and that academic success is primarily a function of the latter.

The research does not support this. A substantial and growing evidence base demonstrates that movement is not merely compatible with academic learning — it is causally implicated in it. Physical activity improves attention, strengthens memory, builds executive function, and raises motivation. These are not peripheral benefits. They are the core mechanisms through which learning happens. This article draws on that evidence to make the case that movement should be treated as a central feature of instructional design, not as a complement to it.

Why the body is not separate from the learning brain

The theoretical foundation for movement-integrated learning rests on two well-established bodies of research: embodied cognition and neuroplasticity.

Embodied cognition proposes that cognitive processes are rooted in bodily experience — that the mind does not operate independently of the body but is shaped by it.² On this account, movement integrated with academic content does not merely add variety to a lesson; it anchors abstract information into bodily experience, creating richer and more durable memory traces. A child who acts out a mathematical concept, walks a timeline, or uses their body to represent a narrative structure is not playing — they are encoding information through a more cognitively distributed channel than purely verbal instruction allows.

Neuroplasticity research adds the physiological layer. Physical activity promotes the brain's capacity to adapt and reorganise — through increased cerebral blood flow, capillary growth, and production of neurotrophins including brain-derived neurotrophic factor (BDNF).³ These effects are particularly pronounced in the hippocampus, the region most directly involved in memory formation and consolidation. When children move, they are not taking a break from the biological conditions for learning. They are actively creating them.

"Movement is not ancillary to academic success — it is central to the brain processes that underlie learning."

Annarie Boor

What the evidence shows

The evidence base here is not thin or emerging. It spans multiple decades, multiple countries, multiple age groups, and multiple study designs. A summary of the research landscape gives a clear picture of how consistent the findings are.

Active lessons, better outcomes — across 29,000 children

A systematic review examining studies involving over 29,000 schoolchildren found that physically active academic lessons — lessons in which movement was integrated into the subject content rather than provided as a separate activity — improved both total physical activity levels and academic performance outcomes, including test scores and classroom engagement.⁴ This is a finding about instructional design, not about PE provision: the academic gains came from embedding movement within subject teaching, not from adding physical activity alongside it.

A separate systematic review and meta-analysis of classroom-based physical activity interventions confirmed that brief movement breaks improve on-task behaviour and classroom engagement — the precursor states to academic performance, rather than performance itself.⁵ The distinction matters: improved engagement is the mechanism through which improved outcomes follow, and it is measurable in real time within the classroom rather than only at assessment points.

Research examining specific academic skills found improvements in mathematics, language, reading, and composite achievement scores following regular physical activity programmes.⁶ These are not generalised cognitive gains — they map onto the specific academic tasks that school assessment is designed to measure. The evidence is directly relevant to the outcomes schools are held accountable for.

Physical activity, self-concept, and the indirect pathway to attainment

For adolescents, the relationship between physical activity and academic performance is both direct and indirect. A 2025 study published in Nature Scientific Reports found that physical activity positively influences academic performance through its effects on self-concept and mental health: students who are more physically active report stronger academic self-concept and better psychological wellbeing, and these factors independently predict academic outcomes.⁷ This is a finding about the motivational and emotional architecture of adolescent learning — the conditions under which sustained effort and genuine engagement are possible — rather than a simple cognitive effect.

The practical implication is that movement provision for adolescents is not only about cognitive performance. It is about the conditions under which adolescents are willing and able to engage. Schools that reduce physical activity provision for older students — on the grounds that the time is better spent on academic preparation — may be removing the very conditions that make academic engagement possible.

Even a short walk changes what comes next

Some of the most practically significant findings concern the acute effects of brief movement. Studies demonstrate that even short bouts of physical activity — a five-minute walk, a brief movement game, a structured break — can measurably enhance memory and problem-solving performance on tasks completed immediately afterwards.⁸ The cognitive benefits of movement are not exclusively the product of long-term exercise habits. They can be triggered by a single short activity, which means that classroom movement breaks are not merely supporting wellbeing — they are directly improving the quality of the learning that follows them.

The mechanisms: how movement works on the learning brain

Understanding why movement improves learning outcomes is as important as knowing that it does — because the mechanisms explain which kinds of movement matter, for which cognitive functions, and at what points in a lesson or school day.

The cognitive infrastructure of academic competence

Executive functions — working memory, inhibitory control, and cognitive flexibility — are among the strongest predictors of academic achievement across age groups. They underpin reading comprehension, mathematical reasoning, self-regulated study, and the capacity to learn from feedback rather than simply performing. Physical activity, particularly aerobic exercise and structured physical play, consistently improves executive function performance.⁹ This is not a peripheral benefit. It is an improvement in the cognitive tools that children use across every academic domain, every day.

The implication for instructional design is that movement integrated into learning — not just added alongside it — should be designed to engage these functions directly: rule-switching games, sequencing tasks, inhibitory challenges embedded into physical activity. The cognitive load amplifies the benefit. A child who stops and starts to a changing signal, or who must remember a sequence while moving, is exercising executive function in ways that purely aerobic activity does not.

Why children return from movement ready to learn

Movement increases attention span and classroom engagement, most likely through a combination of physiological arousal — the neurochemical effects of physical activity on alertness — and the reduction of cognitive fatigue that prolonged sedentary activity produces.¹⁰ This is the mechanism behind the consistent finding that students return from structured movement breaks with improved focus and faster task initiation. They are not refreshed in a vague sense; their neurological state has changed in ways that are directly relevant to sustained cognitive engagement.

For children with ADHD, sensory processing differences, or anxiety — whose baseline arousal regulation is already challenged — this mechanism is particularly significant. Movement breaks do not give these children a rest from the demands of learning. They restore the physiological conditions under which those demands can actually be met.

The emotional conditions for persistence

Movement contributes to positive emotions, motivation, and academic self-efficacy — the belief that effort will lead to outcomes.² Students in movement-integrated learning environments consistently report higher motivation and greater confidence in their academic abilities, and these factors in turn predict persistence on challenging tasks and deeper engagement with learning content. This is not merely a wellbeing finding. Motivation and self-efficacy are among the most powerful predictors of long-term academic achievement, and both respond to the quality of the physical environment in which learning takes place.

"Students in movement-integrated environments report higher motivation and greater confidence — and both predict the persistence that determines long-term academic outcomes."

Annarie Boor

From evidence to practice

The evidence is clear and the gap between evidence and classroom practice is wide. Closing that gap does not require specialist resources or significant structural change — it requires a shift in the assumptions that determine how lessons are designed and how the school day is sequenced.

The gap between evidence and educational culture

None of the findings summarised in this article are obscure or contested. The evidence that movement supports academic learning is substantial, longitudinal, and consistent across age groups and national contexts. What is missing is not research — it is the translation of research into educational culture and structural practice.

Part of what makes that translation difficult is the assumption with which we began: that stillness is the appropriate posture for academic work. That assumption is so deeply embedded in how schools are physically designed, how lessons are timetabled, and how academic seriousness is culturally signalled, that challenging it feels — to many teachers and school leaders — like arguing for lower standards rather than higher ones. The opposite is true. The highest-attaining educational systems in the world are not the ones that maximise seated instruction time. They are the ones that take children's developmental needs seriously enough to design learning environments around them.

Movement-rich instruction is not a concession to the needs of children who struggle to sit still. It is an accurate response to the biological reality of how all children learn — and a particularly important one for those whose neurological profiles mean that the gap between what they could achieve in a well-designed environment and what they achieve in a poorly-designed one is widest.

"The highest-attaining educational systems are not the ones that maximise seated instruction time — they are the ones that take children's developmental needs seriously enough to design around them."

Annarie Boor