Exploring Motor Behavior: From Early Childhood Development to Lifelong Skill Learning

motor behavior
skill acquisition
motor development
motor learning
motor control
motor performance
motor skill
motor program
Author
Affiliation

Cal State Northridge

Published

March 12, 2025

Introduction

Motor behavior – the study of how we develop, control, and learn movement – is a fascinating and complex field. It spans everything from a toddler’s first steps to an athlete mastering a sport or an older adult relearning balance after an injury. Understanding motor behavior isn’t just academically interesting; it has practical importance for health, education, and performance. Recent research is shedding new light on long-held assumptions in this field. For example, a new longitudinal study of preschoolers found that improvements in how children perform fundamental movements (their technique or process) don’t always translate directly into better results (outcomes or product) (Palmer et al., 2025). This intriguing finding provides a springboard for exploring broader themes in motor behavior, including how motor skills develop in early childhood, how technique relates to performance, and why fostering motor abilities early in life can yield lifelong benefits.

Early Childhood: The Foundation of Motor Skills

Early childhood is a critical period for motor development. Children ages 3–5 are busy acquiring fundamental motor skills – basic movements like running, jumping, throwing, catching, hopping, and kicking. These fundamental skills are often called the “building blocks” of more complex movements in sports and daily life. By practicing and refining these basics, children gain motor competence, which is their ability to execute a wide range of movements effectively. Motor development at this stage is rapid and influenced by many factors, including maturation (growing taller, gaining muscle), experience (opportunities to play and practice), and even motivation. Children also show natural individual variability – one 4-year-old might sprint with coordination while another the same age is still mastering a smooth run.

Researchers assess young children’s motor skills in different ways. A common approach is to evaluate the process (quality of movement technique) versus the product (performance outcome). For instance, a child’s throwing skill can be judged by observing their form (do they step forward with the opposite foot? Do they rotate their torso and follow through?) or by measuring how far they throw a ball. On the other hand, product measures like jump distance or running speed capture the outcome. Both perspectives are valuable: process measures tell us about the how of movement, while product measures tell us the result.

The FG-COMPASS (Furtado-Gallagher Children Observational Movement Pattern Assessment System) is a well-known assessment focusing on process, scoring whether children perform each skill component correctly (Furtado & Gallagher, 2012).

Table 1: Examples of process vs. product measures for selected motor skills

Motor Skill Process-focused Assessment (Technique) Product-focused Measure (Outcome)
Throwing Proper sequencing of body actions (step, trunk rotation, arm swing) Distance the ball is thrown (meters)
Running Form checklist (e.g., arm swing, straight posture, heel-to-toe gait) Speed or time to cover a set distance
Jumping Coordinated use of arms and legs (arm swing, bend knees on takeoff) Jump length or height (centimeters)
Hopping Balanced body position and leg use (swing leg motion, landing technique) Number of hops in a row or hopping speed (hops per second)
Kicking Step and swing technique (step toward the target, use of instep, follow-through) Ball velocity or distance kicked (meters)

This distinction between process and product is central to interpreting young children’s motor development. We often assume that their performance outcomes automatically improve as kids learn better techniques. In many cases, this is true – good form can make movement more efficient. However, the recent longitudinal study in early childhood motor development challenges that assumption (Palmer et al., 2025). Researchers followed children from about age 3.5 to 6, tracking both their movement patterns (process) and their performance outcomes (product) in a battery of skills (Palmer et al., 2025). They found that the relationship between process and product measures is not one-size-fits-all. Some skills showed strong correlations – children with more mature techniques also had better outcomes – but others showed little or no correlation (or even an inverse relationship) between form and outcome (Palmer et al., 2025). In fact, the study found a small inverse relationship between hop technique scores and hopping speed for the hopping skill, meaning that children who executed the hop with more textbook form were slightly slower hoppers on average (Palmer et al., 2025). This counterintuitive result reminds us that young children can sometimes generate decent performance outcomes (like faster hopping or longer throws) via compensatory strategies or pure enthusiasm, even if their technique isn’t perfect. Conversely, children might Improve how they perform a skill correctly without immediately seeing a big jump in outcome performance, especially if other factors like strength or confidence are still developing.

Why would better technique not always lead to better performance in early childhood? One reason is that physical growth and strength gains can boost product performance independently of skill refinement. A 5-year-old will generally jump farther than they did at 4 simply because they’ve grown and have more muscle, even if their jumping form hasn’t changed much. Another reason is the speed-accuracy trade-off common in motor learning: focusing on proper form (accuracy) can temporarily make a child slower or less forceful as they concentrate on the mechanics. They learn to combine good form with speed or power only with practice. The finding by Palmer et al. (2025) that process and product don’t always align in early childhood underscores that motor development is multifaceted. It’s a blend of neural maturation, biomechanical growth, and learning. For parents and coaches, patience is key – a child’s ability to do the skill (outcome) and to do it well (technique) may improve on slightly different timelines.

Building Motor Competence and Confidence

One broad theme in motor behavior is the importance of developing motor competence early in life and the far-reaching impact it can have. Motor competence refers to a person’s ability to perform a variety of motor skills proficiently. In childhood, this often boils down to mastering fundamental motor skills. Research has shown that children who develop higher motor competence tend to be more active and fit, and these advantages can snowball over time (Robinson et al., 2015; Stodden et al., 2008). Stodden et al. (2008) proposed a developmental model suggesting that young children with better motor skills are more likely to engage in physical activity, which in turn helps them further improve their skills, fitness, and confidence, creating a positive feedback loop. Conversely, children who lag in motor skills may shy away from physical play and sports, missing out on practice opportunities and potentially entering a negative spiral of lower activity and skill development (Stodden et al., 2008). Over the long term, these trajectories can even influence health outcomes, contributing to differences in fitness and weight status by adolescence (Robinson et al., 2015).

Accumulating evidence supports this model. A systematic review by Robinson et al. (2015) found that motor competence is positively associated with numerous aspects of youth’s health– higher physical activity levels and better cardiorespiratory fitness, muscular strength, and healthy body weight. In one illustrative longitudinal study, Barnett et al. tracked kids from childhood into their teen years. They reported that those with higher fundamental skill proficiency (especially object control skills like throwing and catching) at ages 10-11 were significantly more likely to be physically active as adolescents (Barnett et al., 2009). In other words, a child who can skillfully kick, catch, and throw is more apt to join in games on the playground or play sports in later years, which helps them stay active. These findings make a strong case that investing in motor skill development during early childhood and elementary years is not just about producing little athletes – it’s about setting up a foundation for a healthy, active lifestyle.

Interestingly, motor competence is not only linked to physical health but also to psychological and social factors. Children who develop movement competence often experience greater enjoyment in physical activities and higher perceived competence (i.e., confidence in their abilities) (Robinson et al., 2015; Stodden et al., 2008). This confidence can motivate them to try new activities and face challenges. On the social side, running, jumping, and playing with peers allows children to participate fully in playtime and sports, boosting social inclusion and teamwork skills. From an educational perspective, there’s also evidence of connections between motor and cognitive development – sometimes described as “moving to learn.” For example, one study found that early motor skill development (both fine and gross motor skills) was moderately correlated with later cognitive ability in children, suggesting that developing the brain’s motor circuits might also support cognitive development (Piek et al., 2008). The exact reasons are still being researched, but possibilities include overlapping brain processes (the cerebellum and prefrontal cortex contribute to both motor and cognitive tasks), and physical play provides rich learning experiences that foster problem-solving and attention. All this to say, motor behavior in the early years is interwoven with many strands of a child’s development.

The Lifelong Process of Motor Learning and Control

Another key theme in motor behavior is how we learn and refine skills through practice and how we control our movements. Whether it’s a toddler learning to hop on one foot or an adult learning to play tennis, motor learning is a process of trial and error and gradual improvement. Early on, movements tend to be awkward and consciously controlled – think of a child intently focusing on how to hold a bat and swing. With repetition, the movement becomes smoother and more automatic as the brain optimizes the neural pathways for that skill. Classic models of motor learning describe a progression from a cognitive stage (highly conscious and error-prone) to an associative stage (refining technique, making fewer errors) and finally to an autonomous stage (skill can be performed almost without thinking about it). We see this progression in everyday life: a 6-year-old riding a bike might still wobble and concentrate hard on pedaling, whereas a 12-year-old cycles with effortless balance while chatting with friends – the skill has become second nature.

Importantly, the road to skill mastery is rarely linear. We often observe plateaus or even temporary dips in performance as learners integrate new techniques – much like how the children in the Palmer et al. (2025) study sometimes improved their form without immediate gains in outcome. Motor control researchers note that variability in practice can benefit learning in the long run, even if it causes short-term inconsistency. The body explores different movement solutions before settling into the most efficient pattern. Additionally, factors like feedback and instruction play a big role. For instance, young children may benefit from simple, external focus cues (e.g., “throw the ball hard toward the target”) rather than being overloaded with technical instructions. As they advance, more detailed feedback can help fine-tune their technique. The overarching principle is that practice – especially frequent, fun, and goal-directed practice – is the engine of motor learning. Neurological studies show that practice leads to measurable changes in the brain’s motor areas, strengthening the connections involved in the learned skill. This neuroplasticity underlies our capacity to learn new movements throughout the lifespan.

Because of the brain’s and body’s adaptability, even older children and adults can acquire new motor skills or improve existing ones, though they may need more practice or strategic training than young children. The field of motor behavior often emphasizes a “constraints-based” approach to learning: by manipulating task constraints (rules, equipment, environment) and individual constraints (strength, limb weight, etc.), teachers and coaches can guide learners to discover effective movement techniques. For example, using a lighter ball can help a child focus on throwing form without needing excessive strength, building good habits that later transfer when they throw a full-weight ball. In summary, motor learning is an ongoing, dynamic process that doesn’t end with childhood. Even in adulthood, we continue to adapt our movements (consider how you might change your running form when training for a marathon or how someone relearns to walk smoothly after recovering from a leg injury). At every age, the principles remain: improvement comes from practice, feedback, and gradually optimizing the coordination of our body’s many degrees of freedom.

Practical Implications: Nurturing Motor Development

Understanding these themes in motor behavior has practical implications for parents, educators, coaches, and anyone interested in human development. Here, we blend some technical insights with everyday advice:

  • Encourage Diverse Movement Experiences: Young children benefit from various physical activities – running, climbing, throwing, dancing, and more. Each activity develops different aspects of coordination and control. A rich movement diet helps build a broad foundation of motor skills that can later specialize. Variety also keeps practice fun and engaging, which is crucial for kids (and adults!) to stick with.

  • Focus on Fun and Exploration First: Play-based learning is key in early childhood. Allow kids to experiment with movements without too much pressure to do it “right” every time. If a child is hopping or throwing in an unusual way, that’s okay – they are figuring out how their body works. Over time, gentle guidance can refine their technique, but excessive correction can be discouraging. Remember that process-product gap (Palmer et al., 2025): results will come with time, and enjoyment of movement is the first step.

  • Introduce Technique Through Simple Cues: Simple cues or analogies often work better than technical jargon when teaching skills. For example, to teach an overhand throw, you might say, “Reach back like you’re waving to a friend, then throw!” to encourage proper arm action. As the child grows or if you’re coaching an older beginner, you can introduce more specifics (like foot placement or follow-through). Patience is important – a movement pattern might take hundreds of tries to stick. Give feedback one point at a time and acknowledge improvements in technique even if the outcome isn’t perfect.

  • Provide the Right Challenge: Tasks should be neither easy nor hard. If a skill is too difficult (e.g., expecting a 4-year-old to dribble a full-size basketball), the child can develop bad habits or lose confidence. Modify equipment and expectations to the learner’s level – smaller balls, lower targets, shorter distances – so they can succeed and be challenged to improve. As competence grows, scale up the difficulty. This aligns with the idea of scaffolding motor learning, ensuring success is attainable but not guaranteed without effort.

  • Encourage Physical Play for Confidence and Health: Give children plenty of time for active play, both structured and unstructured. Free play (like running around a playground) lets kids practice motor skills in a low-pressure setting and develop creativity in movement. Structured activities (like an elementary PE class or a learn-to-swim program) provide more focused skill instruction. Both have value. Not only do these experiences build motor skills, they also help kids associate physical activity with fun – fostering a positive attitude that can carry into adulthood.

  • Intervene Early if Needed: Some children have developmental delays or difficulties in motor skills (sometimes diagnosed as developmental coordination disorder or observed as clumsiness). The encouraging news from research is that targeted intervention can significantly improve motor abilities in young kids (Goodway & Branta, 2003). For example, a 12-week preschool motor skill program led to notable gains in fundamental skills for children who started out behind their peers (Goodway & Branta, 2003). Early support can boost a child’s confidence and skills, potentially altering their developmental path onto a more positive trajectory. If a child seems to struggle with basic movements beyond what is typical for their age, seeking guidance from pediatricians or physical educators can identify issues early. Most children can improve with practice and possibly professional support (like pediatric physical therapy or adapted PE). The FG-COMPASS assessment mentioned earlier is one tool that can help identify specific areas of motor difficulty and guide intervention (Furtado & Gallagher, 2012).

  • Lifelong Learning: Finally, recognize that motor learning isn’t just for kids—we are all movers for life. Adults shouldn’t shy away from learning new physical activities, be it picking up tennis in their 40s or practicing balance exercises in their 70s to prevent falls. The same principles apply: start with the basics, be patient through the awkward stages, and celebrate incremental improvements. Our brains and bodies can adapt at any age, especially when we stay active.

Conclusion

Motor behavior is a rich field that connects the dots between physical movements and the underlying developmental, psychological, and neurological processes. From the toddler years through age, we continually acquire and refine skills. In the study of early childhood motor development [@Palmer2025], we illustrated how research can challenge assumptions – showing that “practice makes perfect” is not always straightforward and that development involves a complex interplay of factors. Broadly, we see that fostering sound motor skills early in life can have benefits that echo for years, influencing one’s health, confidence, and cognitive abilities. At the same time, motor learning is an ongoing journey; even as adults, we adapt and learn new motor patterns when needed.

is an ongoing journey; even as adults, we adapt and learn new motor patterns as needed. The practical takeaway is clear: encouraging an active lifestyle and supporting the development of motor skills is an investment in lifelong well-being. For parents and educators, this means creating environments – at home, in schools, and in communities – where children can move, play, and practice skills safely and enjoyably. For society, it means recognizing that physical education and play are not luxuries but foundational elements of early development that can impact public health. By blending insights from scientific research with real-world applications, we can help individual mechanics – it’s about human growth, potential, and the freedom that comes from being able to navigate the world through movement confidently.

References

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Furtado, O., & Gallagher, J. D. (2012). Assessing fundamental movement skills in early childhood: Development and validation of the FG-COMPASS. Research Quarterly for Exercise and Sport, 83(1), 99–107. https://doi.org/10.1080/02701367.2012.10599872
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Piek, J. P., Dawson, L., Smith, L. M., & Gasson, N. (2008). The role of early fine and gross motor development on later motor and cognitive ability. Human Movement Science, 27(5), 668–681. https://doi.org/10.1016/j.humov.2007.11.002
Robinson, L. E., Stodden, D. F., Barnett, L. M., Lopes, V. P., Logan, S. W., Rodrigues, L. P., & D’Hondt, E. (2015). Motor competence and its effect on positive developmental trajectories of health. Sports Medicine, 45(9), 1273–1284. https://doi.org/10.1007/s40279-015-0351-6
Stodden, D. F., Goodway, J. D., Langendorfer, S. J., Roberton, M. A., Rudisill, M. E., Garcia, C., & Garcia, L. E. (2008). A developmental perspective on the role of motor skill competence in physical activity: An emergent relationship. Quest, 60(2), 290–306. https://doi.org/10.1080/00336297.2008.10483582

Citation

BibTeX citation:
@online{furtado_jr2025,
  author = {Furtado Jr, Ovande},
  title = {Exploring {Motor} {Behavior:} {From} {Early} {Childhood}
    {Development} to {Lifelong} {Skill} {Learning}},
  date = {2025-03-12},
  langid = {en}
}
For attribution, please cite this work as:
Furtado Jr, O. (2025, March 12). Exploring Motor Behavior: From Early Childhood Development to Lifelong Skill Learning.