How Movement Influences Brain Development at Every Age

How Movement Influences Brain Development at Every Age

ByDr. Sam McDonald
When most people think about brain development, they picture books, classrooms, puzzles, or learning new information. Movement rarely makes the list. Yet from the moment a baby begins lifting their head, rolling over, crawling, and eventually taking their first steps, movement becomes one of the brain’s primary teachers. Every reach, every shift in balance, every change in body position provides the nervous system with information it uses to build and refine neurological connections. This process doesn’t stop after childhood. The brain continues learning from movement throughout life. For families exploring functional neurology in Wheat Ridge, understanding this relationship often changes the way they think about development. Movement is no longer viewed as “just exercise.” It becomes one of the most important tools the brain has for organizing itself.

The Brain Learns Through Experience

The brain is designed to adapt. From infancy through adulthood, it constantly responds to the information it receives from the world around us. Some of that information comes through vision. Some comes through hearing. Some comes through touch. A tremendous amount, however, comes from movement. Every time you change position, reach for an object, climb stairs, or walk across a room, your brain receives millions of pieces of sensory information. It must determine where your body is in space, how much force to use, how to maintain balance, and how to coordinate muscles with remarkable precision. Most of this happens automatically. The fact that we rarely think about it doesn’t make it any less important.

Movement Begins Teaching the Brain Before Birth

Long before a child learns to walk, movement is already shaping neurological development. Even during pregnancy, movement helps the nervous system begin organizing itself. After birth, development follows a predictable progression. Babies lift their heads. They roll. They crawl. They pull themselves upright. They cruise along furniture. Eventually, they walk. Each milestone provides new sensory experiences that help strengthen the connections between the brain and body. From a functional neurology perspective, these early stages are not simply physical achievements. They are opportunities for the brain to develop timing, coordination, balance, body awareness, and communication between neurological systems.

Why Crawling Is About More Than Getting Across the Floor

Parents often ask whether crawling really matters. The answer is yes. Crawling encourages coordinated movement between the left and right sides of the body. It challenges balance, visual tracking, shoulder stability, proprioception, and communication between the brain’s hemispheres. Not every child who skips crawling will experience developmental challenges. At the same time, developmental history can provide valuable information about how the nervous system matured during infancy. This is one reason functional neurology places so much emphasis on understanding early movement patterns rather than simply asking whether milestones were reached.

Proprioception: The Brain’s Internal GPS

One of the least understood systems in the nervous system is proprioception. Proprioception is the brain’s ability to sense where the body is in space without looking. Close your eyes and touch your nose. Walk up a flight of stairs without watching every step. Reach for your coffee mug while carrying on a conversation. All of these tasks depend on proprioceptive input. Muscles, tendons, and joints continuously send information to the brain about body position and movement. That information helps the nervous system maintain posture, coordinate movement, regulate muscle tone, and plan future actions. When proprioceptive processing is inefficient, everyday tasks can require far more effort than they should.

The Vestibular System: Your Built-In Balance Center

Another critical contributor to brain development is the vestibular system, located within the inner ear. This system constantly monitors:
  • Head position
  • Acceleration
  • Direction of movement
  • Balance
  • Spatial orientation
The vestibular system works closely with the eyes, muscles, and joints to help the brain maintain stability. It also plays an important role in posture, attention, visual tracking, and body awareness. Because these systems are so interconnected, children experiencing balance difficulties sometimes also struggle with reading, coordination, or sustained attention.

Why Movement Supports Attention and Learning

Parents are often surprised to learn that movement and learning are closely connected. Sitting still is not simply a behavioral skill. It depends on multiple neurological systems functioning efficiently. A child who struggles with body awareness, posture, balance, or sensory processing may use significantly more mental energy just maintaining an upright position in a classroom. That leaves fewer neurological resources available for attention and learning. Movement helps organize the sensory information the brain receives throughout the day. When foundational systems are functioning well, higher-level cognitive tasks often become easier. This concept is sometimes described as bottom-up development, meaning that efficient higher-level thinking depends on healthy development of lower-level sensory and motor systems.

Why Functional Neurology Pays Attention to Primitive Reflexes

Primitive reflexes are automatic movement patterns that appear during infancy. They serve important purposes early in life, helping babies feed, respond to their environment, and begin developing movement. As the nervous system matures, these reflexes are expected to integrate. When they remain active beyond infancy, they may interfere with posture, balance, coordination, eye movements, sensory processing, and motor development. Because movement is such an important driver of neurological organization, retained primitive reflexes may affect much more than physical skills alone. They can influence how efficiently the brain processes information from the body and environment. This is one reason primitive reflex assessment is often included as part of a comprehensive functional neurology evaluation.

Movement Continues Shaping the Brain Throughout Life

Movement is not only important during childhood. Adults continue relying on movement to maintain healthy brain function. Balance exercises challenge the vestibular system. Strength training increases proprioceptive input. Walking stimulates coordinated communication between multiple brain regions. Learning new physical skills encourages the brain to build new neural connections. Whether someone is recovering from an injury, managing chronic neurological symptoms, or simply trying to stay healthy as they age, movement remains one of the nervous system’s most valuable sources of stimulation. The brain never completely stops adapting.

Neuroplasticity Gives the Brain the Ability to Change

One of the most encouraging discoveries in modern neuroscience is the concept of neuroplasticity. Neuroplasticity refers to the brain’s ability to adapt and reorganize throughout life. Rather than remaining fixed after childhood, the nervous system continues responding to experience, learning, and movement. This principle forms much of the foundation for functional neurology. Research continues to explore how targeted sensory and motor experiences influence neurological performance. A 2023 study by Teicher and colleagues observed measurable behavioral and neurological changes in children with ADHD following participation in a multimodal intervention program involving sensory-motor activities. While additional research is needed and these findings should not be interpreted as proof of every functional neurology approach, they support the broader understanding that the nervous system can respond to purposeful stimulation. For patients and parents alike, that message is encouraging. The brain is dynamic. It continues learning throughout life.

What This Means for Families

Understanding the relationship between movement and brain development changes the questions we ask. Instead of focusing only on symptoms, we begin asking: How is the nervous system processing sensory information? How well are balance, coordination, and body awareness developing? Are primitive reflexes integrating appropriately? How efficiently are different brain systems communicating? These questions often provide a more complete picture of neurological function than symptoms alone. At Omega Functional Health, this perspective guides the way we evaluate both children and adults.

What This Approach Does and Does Not Claim

Functional neurology does not claim that movement alone will cure developmental disorders, ADHD, autism, learning disabilities, dizziness, or other neurological conditions. Nor does it suggest that every challenge begins with movement. Instead, movement is viewed as one of the brain’s most powerful sources of information. Understanding how an individual processes that information can help identify opportunities to support healthier neurological function as part of a comprehensive, individualized plan.

A Different Way to Think About Brain Health

For families looking for functional neurology in Wheat Ridge, one of the most valuable shifts is recognizing that the brain develops through experience. Movement is not separate from learning. It is one of its foundations. Whether you’re watching your child master their first crawl, helping a teenager improve coordination, or working to maintain your own neurological health as an adult, every purposeful movement provides the brain with an opportunity to learn, adapt, and grow. If you’d like to learn how a comprehensive functional neurology evaluation can help identify the factors influencing brain function for you or your child, we invite you to schedule a complimentary virtual consultation with the Omega Functional Health team serving Wheat Ridge, Denver, Arvada, Lakewood, and surrounding communities.

References

Melillo R. Disconnected Kids. 3rd ed. TarcherPerigee; 2024. Teicher MH, Bolger E, Hafezi P, et al. Open assessment of the therapeutic and rate-dependent effects of brain balance center and interactive metronome exercises on children with attention deficit hyperactivity disorder. Psychiatry Research. 2023;319:114973. doi:10.1016/j.psychres.2022.114973.

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