REFLEX ACTION
Hockey is a dynamic and demanding sport requiring rapid decision-making, precise coordination, and swift reflex actions. Optimal performance hinges on both cognitive and neuromuscular functions. We examine the mechanisms of reflex actions and hand-eye coordination in hockey and share strategies to maintain and enhance these abilities, especially for mature athletes.
Understanding Reflex Actions
Reflex actions are involuntary, automatic responses to stimuli, crucial in fast-paced sports like hockey where quick reactions significantly impact both performance and safety. These actions are facilitated by neural pathways involving:
Sensory Input:
External stimuli, such as a moving ball, are detected by sensory receptors, primarily within the visual and proprioceptive systems.Central Nervous System Processing
The sensory input is transmitted to the brain or spinal cord for processing. This stage involves higher cognitive functions like attention, perception, and decision-making, especially in selecting the appropriate response.Motor Output:
The processed information is then conveyed to the relevant muscles via motor neurons, triggering the reflex action (Davis et al., 2017).
Cognitive Functions in Hockey
Attention and Focus:
High levels of sustained and selective attention are essential for successful hockey players, enabling them to process crucial stimuli while ignoring distractions. This cognitive skill is vital for rapid decisions on positioning, passing, and shooting (Hughes et al., 2016). This must be stimulated and trained; introducing space compression and distractions in skill repetition and adaptation as well as small-sided games. A vast number of coaches are blissfully unaware of the actual complex neuromuscular, cognitive and physiological demands of the sport they are given a responsibility for overseeing ostensibly so participants can improve.Spatial Awareness
Cognitive mapping helps players understand their position relative to other players and the ball; opponents side and baselines as well as the goal. This awareness is critical for anticipating play and executing timely, appropriate actions (Williams et al., 2010).Pattern Recognition:
Experienced players quickly identify patterns in opponents' movements and plays. This recognition enhances decision-making speed and effectiveness (Murray & Smith, 2014). Regular shared video analysis with performance tracking data and training-based situational kinesthetic adaptations are important mechanisms for deep patterning and evolution of pattern recognition in game situations.
Neuromuscular Functions in Reflex Actions
Muscle Coordination
Efficient muscle coordination enables fluid movements and rapid responses. In hockey, this involves complex maneuvers requiring multiple muscle groups, from running, directional change, hitting and flicking through to stick handling (Klein et al., 2020). Unless you have been living under a rock for the past few years, we are highly trained advocates of hockey-specific and age-appropriate periodised strength and mobility prescriptive training programs.Proprioception
This sensory feedback mechanism provides athletes with information about their body's position in space, crucial for precise movements in unpredictable environments like a hockey rink (Schmidt & Lee, 2014). Please read or earlier articles on pre-scanning, balance and visual acuity to fully understand this trait and train it. It’s what we do here.Reaction Time
The speed at which an athlete responds to stimuli is a key performance factor. Improving reaction time can significantly enhance the effectiveness of reflex actions (Bishop et al., 2013).
Maintaining and Enhancing Reflexes and Coordination in Older Athletes
Cognitive and neuromuscular functions may decline with age. Start with a full physical assessment including standardised mobility testing with physical therapists and eye testing. However, older hockey players can maintain and improve these functions through the following:
Consistent Training Regimens
Regular practice focused on agility, coordination, and reaction time is essential. Drills simulating game scenarios are particularly beneficial (Gonzalez et al., 2011).It is crucial these are age-appropriate but also stimulating with clear evidence-based objectives and encompassing more contemporary individual skills such as 3D.Cognitive Training
Engaging in mental exercises such as reaction time drills, decision-making scenarios, and strategic planning can enhance cognitive functions. Video analysis and cognitive games can also improve spatial awareness and pattern recognition (O’Neill et al., 2018). Give these regular time in your own training programs - tennis ball reflex stimulating routines are a great component of warm ups.
Neuroplasticity Enhancements
Activities challenging balance and coordination stimulate neuroplasticity, forming new neural pathways. Tai Chi, yoga, and balance training improve neuromuscular efficiency and coordination (Zheng et al., 2020). This is of crucial importance in aging athletes - balance improvement not only aids skill execution for hockey; if maintained, it will dramatically reduce the risk of catastrophic falls in later years.Nutritional Support
Proper nutrition, including omega-3 fatty acids, antioxidants, and adequate hydration, supports cognitive function and brain health, crucial for maintaining performance (Morris et al., 2015). You are what you eat. If you have a large percentage of UPF (ultra processed foods ) in your diet you not only put yourself at risk of disease occurrence but also cripple your ability to fine tune motor responses; UPF have chemical components known to disaffect motor function.Recovery and Injury Prevention
Older athletes should prioritize recovery to prevent injuries that impair reflexes and coordination. This includes proper warm-ups, cooldowns, stretching, and physiotherapy when needed (Hoffman et al., 2014).
Hand-Eye Coordination Drills
We have curated some useful generic workout videos in the article but we recommend you also do some DIY - search platforms like YouTube for "Hockey Hand-Eye Coordination Drills" or "Ball Sports Reaction Drills" to find visual demonstrations. Many videos provide clear instructions and variations for different skill levels. Example terms could include: "Tennis Ball Reaction Drill", "Juggling for Hockey", or "Eye Tracking and Stick Handling".
Bibliography
Bishop, D. J., et al. (2013). Assessment of maximal oxygen uptake: a review of the literature. Sports Medicine , 43(5), 399-414.
Davis, K., et al. (2017). Neurophysiological Bases of Reflex Actions and Their Role in Sports Performance. Journal of Human Kinetics , 56(1), 1-12.
Gonzalez, A. M., et al. (2011). Coaching and movement pattern training for older athletes: What works? International Journal of Sports Science & Coaching , 6(3), 375-387.
Hoffman, M. D., et al. (2014). The role of recovery and rehabilitation in the enhancement of athletic performance. Journal of Sports Sciences , 32(10), 898-904.
Hughes, M., et al. (2016). Cognitive aspects of motor skill performance: Implications for coach education. International Journal of Sports Science & Coaching , 11(2), 187-197.
Klein, A., et al. (2020). Co-activation and maintenance of neuromuscular performance in athletes: A review of training paradigms. Sports Medicine , 50(4), 735-746.
Morris, M. C., et al. (2015). Dietary fats and cognitive function in older adults: A review of the literature. Advances in Nutrition , 6(2), 158-165.
Murray, N., & Smith, R. (2014). The role of experience and expertise in sports decision-making: A review. Journal of Applied Sport Psychology , 26(4), 438-455.
O’Neill, M., et al. (2018). The effects of cognitive training on athletes: A systematic review of the literature. Frontiers in Psychology , 9, 559.
Schmidt, R. A., & Lee, T. D. (2014). Motor Control and Learning: A Behavioral Emphasis . Champaign, IL: Human Kinetics.
Zheng, D. D., et al. (2020). Tai Chi for improving balance and reducing falls in older people: A systematic review and meta-analysis. Journal of Geriatric Physical Therapy , 43(1), 28-35.