Functional movement screening tips to identify injury risk factors in team sport athletes.
A practical guide detailing how to perform functional movement screening in team sports, identify common risk factors, interpret results accurately, and implement targeted training strategies that reduce injuries and enhance on-field durability and performance.
Published August 08, 2025
Facebook X Reddit Pinterest Email
Functional movement screening (FMS) has emerged as a practical approach for teams seeking objective insights into how athletes move, rotate, and control their bodies during common tasks. The goal is not to diagnose specific injuries but to flag patterns associated with heightened risk. Coaches and practitioners pair standardized tasks with clinical judgment to observe asymmetries, compensatory movements, and difficulty with mobility, stability, or force production. A well-executed screening session begins with clear expectations, a quiet space, and consistent instructions that minimize anxiety and performance pressure. Athletes should perform tasks with controlled tempo, and evaluators must document deviations systematically to build a reliable picture across players, positions, and training phases.
When integrating FMS into a team setting, start with baseline measurements for all players and repeat periodically to track change over time. Use these data to stratify risk and tailor interventions to individual needs rather than applying generic programs. It is essential to combine screening results with medical history, prior injuries, and training load to avoid misinterpretation. A robust process involves collaborative decision making among coaches, athletic trainers, strength coaches, and sport physicians. This multidisciplinary approach helps ensure that movement findings translate into practical, sport-specific adjustments, such as correcting lunge mechanics, improving hip hinge control, or addressing shoulder stability. The ultimate aim is to create a continuous loop of assessment, intervention, and re-evaluation.
Practical steps connect screening to season-long training plans.
The first step in interpretation is to distinguish between flexibility limitations and dynamic stability issues. Limited ankle dorsiflexion, for example, may constrain squat depth and alter tibial alignment, potentially increasing knee stress during cutting or deceleration. Conversely, a lack of core control during rotational tasks can reveal upstream trunk and hip instability that manifests as compensatory side-bending or lumbar extension. Observers should note the context of each movement, including fatigue, recent training loads, and the athlete’s skill level. A careful synthesis combines quantitative scores with qualitative observations, highlighting where a restriction or pattern repeatedly appears under time pressure or endurance tasks.
ADVERTISEMENT
ADVERTISEMENT
After identifying patterns, the next phase focuses on targeted interventions that address root causes rather than symptoms. Prioritize movement quality over quantity; teach athletes to move with controlled tempo, deliberate breathing, and mindful engagement of stabilizing muscles. Address hip mobility through progressive, load-bearing positions, while reinforcing symmetrical strength across sides to reduce asymmetries. Some athletes benefit from proprioceptive and neuromuscular drills that enhance feed-forward control during sudden changes of direction. Communication matters too: explain why a drill matters, demonstrate proper technique, and provide feedback that is specific, actionable, and encouraging. The end goal is durable performance with reduced vulnerability to common team sport injuries.
Use screening results to inform load management and recovery strategies.
Implement a standardized screening battery at pre-season and re-check mid-season to capture improvements or emerging risks. Keep the process efficient to minimize disruption, ideally completing essential tasks within 15 to 20 minutes. Use a simple scoring rubric that highlights the most clinically meaningful deviations rather than chasing every minor detail. When a player displays a consistent red flag—such as poor trunk stability with a lower limb task—prioritize corrective work in warm-ups and microcycles. This approach maintains buy-in from athletes who often value performance gains as much as injury protection, reinforcing adherence to prescribed protocols.
ADVERTISEMENT
ADVERTISEMENT
Design modifications should be sport-specific and progression-based. Start with foundational control—neutral spine, stacked joints, and stable pelvis—before adding dynamic challenges like unilateral loading, plyometrics, or multi-planar hops. Integrate task-specific drills that mimic on-field demands, such as rapid deceleration, change of direction, and accelerations with preset tempo cues. Monitor response to progression by tracking movement quality, reaction to perturbations, and ability to recover balance after a destabilizing cue. The screening framework becomes a living guide, evolving alongside the athlete’s development, strength gains, and tactical responsibilities within the team.
Implement simple, scalable drills that reinforce good movement patterns.
Risk factors identified through movement screening should intersect with load management principles to prevent overuse and acute injuries. For instance, if a player shows diminished hip control during landing tasks, coaches might schedule lighter sprint days or emphasize lower-impact conditioning while still preserving sport-specific intensity. Conversely, athletes lacking ankle mobility may need alternate approaches to plyometrics that reduce knee torque during high-velocity tasks. The liaison between screening data and training stress helps maintain an optimal balance between stimulus and recovery, supporting performance goals without compromising safety. Documenting decisions and outcomes creates accountability across staff and players.
Education sits at the heart of sustainable change. Teach athletes to self-monitor movement quality and recognize uncomfortable or painful cues that warrant medical review. Provide visuals and cueing strategies that demystify complex concepts, enabling independent warm-up routines and corrective exercises. Encourage athletes to report subtle shifts in technique, fatigue, or joint soreness early rather than waiting for performance decline. By fostering ownership of movement health, teams cultivate a proactive culture that supports longevity, consistent participation, and confidence in returning from minor injuries promptly and safely.
ADVERTISEMENT
ADVERTISEMENT
From screening insights to ongoing injury prevention and performance gains.
A practical progression toolkit enables teams to integrate screening-informed habits into daily practice. Begin with simple mobility drills that free up restricted joints, then advance to stability-focused sequences that challenge control under fatigue. A well-rounded program alternates bilateral and unilateral work, ensuring balanced development across sides and planes of motion. Incorporate balance challenges, controlled decelerations, and rhythm-based coordination tasks that mirror game demands. Coaches should embed these drills into warm-ups and cooldowns so athletes experience continuity, not disruption, and can measure progress in a straightforward manner through observable improvements.
To maintain relevance, periodically revisit movement screening criteria and adjust thresholds as athletes mature or shift positions. For example, a developing defender may require different coordination benchmarks than a veteran forward. Timelines matter: re-screen after major training blocks, post-season, or following a significant injury to reassess risk factors and update intervention plans. This adaptive approach helps prevent stagnation and keeps the program aligned with evolving sport science. Effective communication with players ensures expectations stay clear and participation remains enthusiastic.
The ultimate value of functional movement screening lies in translating findings into actionable, measurable improvements. Track concrete outcomes such as reductions in time-loss injuries, improved sprint mechanics, and enhanced balance under fatigue. Pair objective metrics with subjective feedback from athletes about perceived stability and confidence during high-stress game moments. Regular meetings among staff to review case studies keep the process transparent and educational, reinforcing the idea that movement quality is a foundational performance asset. When executed consistently, screening programs become integral to team culture, not merely a compliance exercise.
By embracing a careful blend of assessment, targeted coaching, and collaborative care, teams can reduce injury risk while unlocking performance gains. The most sustainable programs respect individual differences, avoid over-scripting drills, and emphasize portability across practice formats. This means flexible scheduling, scalable exercise libraries, and open channels for athlete input. When movement screening is part of a broader health-and-performance ecosystem, athletes move more efficiently, recover faster, and perform at higher levels when it matters most. The result is a proactive, evidence-informed approach that supports long-term athletic development and team success.
Related Articles
Sports medicine
Effective, practical strategies for coaches to adjust drills, manage contact intensity, and distribute workload in team sessions to lower injury risk without sacrificing skill development or competitive drive.
-
July 18, 2025
Sports medicine
A clear, evidence-based guide to a patient-centered return-to-sport plan after ACL reconstruction, detailing stages, milestones, testing, and decision-making criteria for athletes seeking sustainable, pain-free performance.
-
July 23, 2025
Sports medicine
This evergreen guide outlines practical, evidence-informed rehabilitation methods that restore hip stability, protect groin integrity, and lower knee injury risk for athletes returning from injury or seeking prevention.
-
August 12, 2025
Sports medicine
Proprioceptive training builds joint awareness, improves balance, and strengthens neuromuscular control, yet athletes often struggle with progression. This guide outlines practical prescription strategies, progression cues, and monitoring methods to reduce ankle injuries across field sports.
-
July 19, 2025
Sports medicine
A practical framework explains sport-specific conditioning strategies that minimize overuse injuries, spanning assessment, progressive loading, recovery emphasis, and athlete education to sustain peak performance across seasons.
-
July 29, 2025
Sports medicine
A practical, evidence-informed guide to managing recurring hamstring injuries through customized rehabilitation, gradual loading, and personalized prevention strategies that adapt to each athlete’s sport, history, and goals.
-
August 04, 2025
Sports medicine
Corrective exercise programs for teens must be purposeful, progressive, and collaborative, integrating assessment, targeted movement reeducation, and sport-specific practice to restore healthy mechanics while supporting growth, resilience, and athletic development.
-
July 26, 2025
Sports medicine
A comprehensive, evidence-informed overview of when athletes can safely resume competition after nonoperative fracture treatment, addressing physiological healing, functional benchmarks, and context-specific decision-making for clinicians and teams.
-
July 18, 2025
Sports medicine
Athletes who dedicate the off-season to structured conditioning can cut injury risk, preserve fundamental movement skills, and progressively tailor workouts to their sport’s unique demands while recovering from high-intensity seasons.
-
July 29, 2025
Sports medicine
This evergreen guide outlines practical, evidence-informed methods to blend strength and mobility routines into a typical week, reducing risk of knee, hip, back, shoulder, and ankle injuries while preserving performance and recovery.
-
July 27, 2025
Sports medicine
A practical guide explaining how targeted mobility routines tailored to your sport can alleviate pain, enhance joint function, prevent injuries, and support long-term athletic performance through systematic, progressive practice.
-
July 26, 2025
Sports medicine
A practical, evidence-informed guide to building safe, effective strength routines for young athletes, accounting for growth spurts, maturation, and injury prevention while promoting sustainable performance development.
-
July 19, 2025
Sports medicine
In competitive athletes, a cautious, staged recovery plan balances pain relief, functional rehabilitation, and sport-specific readiness, emphasizing imaging-guided decisions, progressive loading, and multidisciplinary collaboration for durable joint health.
-
July 25, 2025
Sports medicine
A practical, science-based guide for runners seeking sustainable gains, explaining how to safely increase volume and intensity, monitor signals from the body, and structure progression to prevent common injuries and setbacks.
-
August 10, 2025
Sports medicine
A practical guide to designing rehabilitation programs for hypermobile athletes that cultivate essential stability, protect joints, and preserve athletic performance by harmonizing mobility with controlled, purposeful movement.
-
August 02, 2025
Sports medicine
Endurance athletes face hyponatremia risk during prolonged exertion; structured pathways improve recognition, triage, fluid decisions, and recovery, reducing complications and supporting safe performance across diverse environments.
-
August 12, 2025
Sports medicine
A practical guide for endurance athletes to structure year-round training with built-in recovery, gradual progression, and injury prevention principles, ensuring sustainable performance gains without chronic strain or setbacks.
-
August 09, 2025
Sports medicine
A practical, evidence-informed guide to ramping sprint work after hamstring injury, focusing on technique optimization, load management, gradual volume increases, and patient-centered recovery strategies for sustainable performance.
-
July 23, 2025
Sports medicine
This evergreen guide explores practical, evidence-based ways to weave cognitive training into rehab programs, helping athletes sharpen decision-making, reactions, and situational awareness while lowering the risk of re-injury.
-
July 16, 2025
Sports medicine
An evidence-informed guide for athletes preparing for surgery, detailing prehabilitation approaches that optimize recovery, enhance resilience, and preserve performance through tailored exercise, nutrition, and mental readiness before orthopedic procedures.
-
August 12, 2025