Neuro Athelete
Neuro-Athlete exercises are targeted brain-and-body drills designed to optimize the nervous system, including visual training, vestibular training, and proprioceptive drills. These exercises improve how the brain processes sensory input to enhance physical strength, balance, reaction time, and coordination. reaction time, and coordination.
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Neuro movement in sports — often called neuro-athletics — focuses on optimizing the communication between the brain, eyes, inner ear, and muscles to enhance athletic performance, speed up reaction times, and prevent injuries.
Core Systems Involved
Visual System: Controls gaze stability and peripheral tracking, dictating how fast an athlete reads a play or tracks a ball.
Vestibular System: Manages the inner ear and balance, helping the body understand head position and spatial orientation.
Proprioceptive System: Uses sensory receptors in muscles and joints to monitor body position, allowing precise limb movement without constant visual checking.
Movement and a Healthy Brain » The 100 Year Lifestyle
The brain controls movement through a connected system where plans start in the cortex, get fine-tuned by deep brain structures, and travel down the spinal cord to the muscles. At the same time, physical movement feeds back into the brain to improve memory, focus, and overall brain health
Key Brain Areas for Movement
Motor Cortex: Plans and starts voluntary actions.
Cerebellum: Controls balance and smooths out coordination.
Basal Ganglia: Helps choose and manage smooth motor strategies.
Brainstem: Manages basic posture and automatic mobility
Key Types of Neuro-Athletic Exercises
Visual Drills
Pencil push-ups or near-far focus switches to train eye-tracking and midbrain activation.
Using specialized tools like reaction balls or light-cued boards to speed up visual processing.
Vestibular Drills
Head rotations and gaze stabilization (such as the “No/No/Yes/Yes” exercise) to stimulate the inner ear and reflex stability.
Vertical or horizontal linear head shifts to prime the body for squats or lunges.
Proprioceptive and Balance Drills
Single-leg stands on unstable foam pads or balance boards to sharpen the body’s spatial awareness.
Complex cross-body movements, juggling, or ladder hopping to sync both brain hemispheres
The importance of grey matter
Our brain and spinal cord contain grey matter (GM), which is responsible for motor control and sensory perception in our body. GM contains motor neurons that send action potentials down the axon and into our muscle cells, which results in movement [5]. There tends to be a stronger signal and more refined neural pathway when there is high GM density in the brain [5]. Studies indicate that humans tend to increase GM density during childhood, followed by a loss of GM density after puberty [3, 4]. It is suggested that as we mature, the volume of synaptic connections decreases and our ultimate GM density is determined [4].
An interesting study by Gogtay et al. (2004) [5] reports that following brain maturation, an adolescent’s GM density diminishes until young adulthood. However, this does not mean that we are unable to learn new motor patterns after puberty. Instead, it simply implies the greatest “window of opportunity” for learning motor skills is before puberty and that afterwards, motor skill pattern potential is limited due to the motor synapses closing.
Fast- and slow-stage learning
Changes in motor skill neuroplasticity are often divided into a “fast-stage” (short-term) and “slow-stage” (long-term). During fast-stage learning, it is believed the primary motor cortex in our brain recruits substantially more neurons for new motor tasks [6]. This increase in brain activity can result in vast improvements being seen within a single training session. After improving a motor skill, we transition to the slow-stage of learning where multiple training sessions and repetitive practice are needed to retain or improve that skill.
Unlike the fast-stage, the slow-stage of learning results in small improvements at a much slower pace [7]. This is due to neuroplasticity’s “use it or lose it” principle when it comes to motor skills [9]. The brain’s plasticity will either slowly strengthen or reduce a motor pathway based on repetitive action, or the lack thereof. However, past repetitive practice of motor tasks could lead to a quicker re-adaptation if there was stoppage of that skill [8]. This term is called “savings” and is why many athletes can still perform a skill such as shooting a basketball, even after years of not practicing.
