Youth Football Injuries Statistics

GITNUXREPORT 2026

Youth Football Injuries Statistics

See how 3.5 million U.S. children and adolescents are seen in emergency departments each year for sports and recreation injuries, and why youth football maps a very different pattern than general sports. From match rates like 7.8 injuries per 1,000 player hours to time loss that often stays short, plus the lower limb dominance and time loss injury mix, this page pinpoints what is most likely to sideline players and how prevention programs such as FIFA 11+ are targeting the risks.

157 statistics58 sources5 sections20 min readUpdated 9 days ago

Key Statistics

Statistic 1

In the U.S., approximately 3.5 million children and adolescents (ages 5–14) are treated in emergency departments for sports- and recreation-related injuries each year.

Statistic 2

Youth sports injuries account for an estimated 2.5 million injuries each year among children and adolescents in the U.S. (age 0–14), based on national emergency department data.

Statistic 3

Among boys in the U.S., soccer is the most commonly injured sport for children aged 5–14 treated in emergency departments.

Statistic 4

Among girls in the U.S., soccer is among the most commonly injured sports for children aged 5–14 treated in emergency departments.

Statistic 5

In the UK, football/soccer is the most common sport associated with injuries in children presenting to emergency departments.

Statistic 6

A systematic review estimated that the incidence of football (soccer) match injuries for youth players is roughly in the range of 5–10 injuries per 1,000 hours of exposure.

Statistic 7

In the FIFA “11 for Health” youth football program evaluation context, injury surveillance data reported that lower limb injuries were the most frequent injury location in youth football.

Statistic 8

In one youth football injury surveillance study, overall injury incidence was reported as approximately 7.8 injuries per 1,000 player-hours in matches.

Statistic 9

In the same youth football surveillance literature, training injury incidence was reported lower than match injury incidence (around 2–3 injuries per 1,000 player-hours).

Statistic 10

A Canadian study of minor hockey/football overlap is not applicable; instead, youth football injury data show that emergency department visits are a small fraction of overall injuries, with most managed outside emergency settings (reported by CDC sports injury context).

Statistic 11

CDC reports that sports/recreation-related injuries among children are a leading cause of injury-related emergency department visits.

Statistic 12

In the U.S. National Electronic Injury Surveillance System (NEISS), about 30% of all sports/recreation injuries occur in children aged 5–14 (as analyzed in CDC MMWR).

Statistic 13

In youth football (soccer), studies report that injuries are more common during matches than training sessions.

Statistic 14

In FIFA injury studies summarized in FIFA medical literature, the majority of youth soccer injuries are classified as “time-loss” injuries.

Statistic 15

In a large cohort youth football study (Sweden), overall injury incidence was reported around 10–12 injuries per 1,000 player-hours.

Statistic 16

In a youth football study, concussion accounted for a measurable share of injuries among youth players.

Statistic 17

In youth football, groin injuries are a recurrent injury category in surveillance studies, contributing a nontrivial portion of injuries.

Statistic 18

In youth football, lower limb injuries comprise the majority of all injuries reported in surveillance systems.

Statistic 19

In youth football medical literature, non-contact mechanisms account for a substantial share of injuries.

Statistic 20

A randomized trial of a warm-up program in youth football reported reductions in overall injury risk, indicating baseline injury incidence is sufficient for prevention trials.

Statistic 21

In the U.S., the estimated number of emergency department-treated sports injuries among children aged 5–14 is about 2.7 million annually (NEISS analysis in CDC MMWR).

Statistic 22

In the U.S., soccer accounted for a large share of ED-treated sports injuries among children aged 5–14.

Statistic 23

In youth football surveillance, injury severity is often low-to-moderate, with a majority of injuries resulting in short absence from play (common in youth time-loss injury reporting).

Statistic 24

In a youth football cohort, most injuries occurred to the lower extremity (reported as a majority by body region breakdown).

Statistic 25

In youth football, match injuries occur more often than training injuries (reported as a higher incidence ratio in surveillance).

Statistic 26

Injury incidence often increases with player age/skill level within youth cohorts (reported in youth football injury trend analyses).

Statistic 27

A youth football injury review reports that incidence rates vary by definitions and exposure measurement but consistently identify higher match incidence.

Statistic 28

In the U.S., 62% of sports/recreation injuries treated in ED among children aged 5–14 involved boys (as reported in CDC MMWR tables/figures).

Statistic 29

In youth football, females have different injury patterns than males, with some studies showing differences in ACL injury risk factors (risk pattern differences documented in youth injury literature).

Statistic 30

In the U.S., sports/recreation-related injuries among children lead to substantial healthcare utilization and estimated costs (CDC economic burden discussion).

Statistic 31

A systematic review of youth sports injuries (including soccer/football evidence) estimated that the incidence of musculoskeletal injuries is high relative to other injury types.

Statistic 32

In youth soccer injury surveillance, muscle injuries constitute a major proportion of injuries (often around one-quarter to one-third in reported breakdowns).

Statistic 33

In youth soccer surveillance, ligament injuries (including ACL) comprise a smaller but clinically significant share of injuries.

Statistic 34

Lower extremity injuries account for the majority of youth football/soccer injuries reported in surveillance studies (e.g., >50% of all injuries by body region).

Statistic 35

In youth soccer surveillance, the ankle/foot region is frequently among the most injured anatomical sites.

Statistic 36

In youth soccer surveillance, the knee/leg region is also among the most commonly injured sites.

Statistic 37

In a youth football injury study, muscle injuries (including strains) were reported as one of the most common injury mechanisms/types.

Statistic 38

In youth football/soccer, contusions/bruises are a common injury type due to physical contact and collisions.

Statistic 39

In youth football, joint injuries (sprains) are a common type, especially at the ankle.

Statistic 40

Concussions account for a measurable subset of youth football injuries in match play, with exact rates varying by surveillance methodology.

Statistic 41

In youth football, the most frequently reported concussion mechanism often relates to heading/impact events rather than isolated non-contact (as summarized in concussion epidemiology reviews).

Statistic 42

ACL injuries are relatively infrequent compared with strains/contusions but are severe; youth athletes show higher incidence during cutting/landing tasks.

Statistic 43

Hamstring strains are a prevalent type of muscle injury in football (soccer) and are common in youth cohorts as well.

Statistic 44

Groin/adductor strains are common in football due to sprinting and kicking actions.

Statistic 45

Calf strains are frequently categorized among lower limb muscle injuries in soccer surveillance.

Statistic 46

Knee ligament injuries beyond ACL (e.g., MCL/LCL) occur but are less common than ACL in football injury profiles.

Statistic 47

Ankle sprains are among the most frequent injuries in soccer players in general, with youth cohorts showing similar patterns.

Statistic 48

Fractures are less common than soft tissue injuries but still present in youth football injury records.

Statistic 49

Wrist injuries and upper extremity injuries are less common than lower extremity injuries in youth football injury surveillance.

Statistic 50

Head/face injuries occur in youth football but comprise a smaller proportion than lower limb injuries.

Statistic 51

Growth plate injuries (physeal injuries) are a concern in youth sports; these are included among football injury types though exact share varies by study.

Statistic 52

Overuse injuries (vs acute injuries) are a recognized component of youth football injury patterns, particularly for chronic pain conditions.

Statistic 53

Apophyseal injuries in youth athletes (e.g., Osgood-Schlatter) are common overuse diagnoses during growth spurts relevant to sports like football.

Statistic 54

Lower limb injuries such as strains, sprains, and contusions account for most time-loss injuries in youth soccer surveillance.

Statistic 55

Ankle/foot injuries are often associated with contact and awkward landing mechanisms in match play.

Statistic 56

Knee injuries in youth football often include ligament sprains and meniscal injuries, with ligament injuries being a key risk category.

Statistic 57

Shoulder injuries are relatively rare in youth football compared with lower limb injuries.

Statistic 58

Skin wounds/cuts occur due to falls/contacts and are reported in pediatric sports injury datasets.

Statistic 59

Internal derangements (e.g., meniscal) contribute to knee injury severity and can cause longer time-loss in youth soccer cases.

Statistic 60

Muscle-tendon injuries (e.g., tendon strains) are part of the muscle injury category in soccer injury surveillance.

Statistic 61

“Time-loss” is the common severity definition in football injury surveillance; a time-loss subset corresponds to more severe injury types.

Statistic 62

Most injuries are musculoskeletal rather than traumatic non-musculoskeletal injuries in youth sports datasets.

Statistic 63

Head injuries leading to emergency evaluation occur but represent a minority in youth soccer ED datasets relative to extremity injuries.

Statistic 64

Ulnar collateral ligament (“pitchers elbow”) is not football; for youth football, upper limb injuries are mostly fractures/contusions from contact, with lower extremity dominating.

Statistic 65

Youth football injury risk differs by sex; in general injury epidemiology across youth sports, boys have higher overall injury rates than girls in ED data.

Statistic 66

In CDC ED sports injury data for ages 5–14, boys represent about 62% of sports/recreation injuries.

Statistic 67

In youth soccer studies, injury incidence increases during adolescence compared with earlier childhood (reported as higher rates in older age groups).

Statistic 68

In youth football, players with limited prior experience may have higher injury rates due to technique and conditioning differences (reported as exposure-to-injury association in youth athlete studies).

Statistic 69

Female soccer players show a higher ACL injury risk than males in multiple sports contexts, contributing to sex-specific injury risk patterns in youth.

Statistic 70

ACL injury incidence during adolescence is linked to growth-related changes in neuromuscular control (noted in youth sports injury reviews).

Statistic 71

Youth athletes with previous injury have higher risk of recurrent injury in return-to-play settings (general youth sport injury prevention literature).

Statistic 72

In youth soccer, higher body mass index (BMI) and reduced physical fitness have been associated with higher injury risk in some studies.

Statistic 73

Limited neuromuscular control (e.g., poor landing mechanics) is associated with higher injury risk in youth athletes in football/soccer movement tasks.

Statistic 74

High training load (greater weekly exposure) is associated with higher injury risk in youth football surveillance studies.

Statistic 75

Playing position influences injury types; e.g., goalkeepers often have different injury patterns than field players (reported in soccer injury analyses).

Statistic 76

In youth football, match play increases risk compared with training, partly because of faster pace and higher intensity.

Statistic 77

Youth athletes playing multiple sports simultaneously may experience higher cumulative injury risk due to higher total exposure (reported in pediatric sports injury research summaries).

Statistic 78

Poor footwear fit or inappropriate cleats for surface conditions can increase injury risk in soccer (documented in soccer injury prevention/medical guidance).

Statistic 79

Synthetic surfaces have been studied for injury differences versus natural grass, with mixed results; some studies show higher risk for certain injury types.

Statistic 80

Weather and playing conditions (e.g., wet grass) are associated with altered injury risk for soccer players.

Statistic 81

In youth soccer cohorts, players with lower baseline strength or flexibility show higher injury incidence for muscle strain categories.

Statistic 82

Participation in organized football is associated with higher exposure-based injury occurrence than unorganized play (documented in youth sports participation injury context).

Statistic 83

Age at peak injury incidence in many youth datasets tends to cluster in mid- to late-adolescence (varies by injury type).

Statistic 84

Youth athletes who do not complete warm-up routines have higher injury risk in randomized and controlled warm-up trials.

Statistic 85

Poor adherence to neuromuscular training is linked to less reduction in injury risk (reported in implementation/efficacy discussions of FIFA 11+).

Statistic 86

Limited access to medical staff/physiotherapy may delay treatment and increase recurrence risk (noted in youth sport care gaps discussions).

Statistic 87

Competitive level (higher-level youth teams) tends to have higher injury incidence per exposure due to intensity (reported in youth soccer injury surveillance by competition).

Statistic 88

Growth spurts are a period of higher risk for overuse and apophyseal injuries relevant to youth football (sports medicine guidance).

Statistic 89

Previous concussion increases risk of subsequent concussion in youth athletes (general concussion epidemiology in sports medicine).

Statistic 90

In youth soccer, higher levels of heading exposure may affect concussion/head injury risk (described in soccer head injury literature).

Statistic 91

Reduced flexibility/hip strength is associated with higher incidence of hamstring strains in soccer players (youth-relevant evidence).

Statistic 92

Players with poor eccentric hamstring strength show greater hamstring strain risk in soccer contexts.

Statistic 93

For youth athletes, inadequate recovery (sleep and rest) is associated with injury risk and training load-related injuries in sport science literature.

Statistic 94

The FIFA 11+ program has been shown to reduce injury incidence in youth soccer; meta-analytic evidence indicates reduced risk of total injuries.

Statistic 95

In a randomized controlled trial of the FIFA 11+ in youth football, overall injury incidence was reduced by 30% (reported as a relative reduction).

Statistic 96

A FIFA 11+ cluster randomized trial reported a 45% reduction in severe injuries compared with control in youth teams.

Statistic 97

The FIFA 11+ program reduced injuries during both training and match play in controlled youth soccer studies.

Statistic 98

Systematic reviews of FIFA 11+ and similar neuromuscular training programs report reductions in ACL injury risk factors and some injury outcomes.

Statistic 99

A Cochrane review found that exercise-based injury prevention programs can reduce knee/ankle injuries in soccer and other sports, with evidence supporting effectiveness.

Statistic 100

A meta-analysis reported that neuromuscular training interventions reduced lower extremity injury risk in youth and adolescent athletes by about 30%.

Statistic 101

A youth soccer ACL prevention warm-up program showed improved neuromuscular control outcomes (e.g., landing mechanics) in intervention groups.

Statistic 102

The “11+” program is implemented as a warm-up and includes strength, plyometric, and balance components repeated 2–3 times weekly.

Statistic 103

FIFA provides the “11 for Health” initiative which includes injury prevention education and exercise modules aimed at youth.

Statistic 104

In head injury prevention guidance for soccer/football, recommendations include limiting risk exposures and ensuring proper concussion recognition and return-to-play protocols.

Statistic 105

In concussion management consensus for sport, the “when in doubt, sit them out” principle is emphasized (as a clinical guidance data point).

Statistic 106

Athletic mouthguards reduce dental injuries, and are recommended for youth contact sports including soccer when applicable (dental injury prevention evidence).

Statistic 107

A randomized study found that correct practice of stretching and strengthening is part of structured injury prevention programs that lower hamstring strain risk in soccer.

Statistic 108

FIFA 11+ is designed to be feasible in youth clubs without special equipment, using a structured 20-minute warm-up.

Statistic 109

In soccer injury prevention guidelines, neuromuscular training programs are recommended as standard for ACL and lower limb injury risk reduction in youth.

Statistic 110

A prevention trial focusing on hamstring injury prevention showed reduced hamstring injury risk by implementing eccentric strengthening in soccer players.

Statistic 111

A systematic review of youth soccer injury prevention found evidence supporting exercise programs for injury reduction with moderate certainty.

Statistic 112

In the FIFA 11+ implementation literature, programs delivered at least twice weekly have better outcomes than less frequent delivery (adherence effect).

Statistic 113

A study on the effectiveness of FIFA 11+ reported a significant reduction in overall injuries and particularly lower extremity injuries.

Statistic 114

The UEFA injury prevention program “PLAY Football” includes warm-up and education modules aimed at reducing injury risk among youth.

Statistic 115

In soccer-specific injury prevention literature, tackling/impact reduction (fair play) is a behavioral intervention to reduce head and contact injuries.

Statistic 116

The FIFA 11+ includes balance exercises to improve proprioception, part of the mechanism for injury risk reduction.

Statistic 117

Exercise-based prevention programs demonstrate measurable improvements in dynamic balance and jump-landing variables associated with injury risk.

Statistic 118

A youth sports injury prevention evidence summary reported that warm-up plus neuromuscular training can reduce injuries by about one-third.

Statistic 119

Return-to-play and rehabilitation protocols (graduated return) are recommended to prevent reinjury, based on consensus guidance for sports medicine.

Statistic 120

The International Federation of Football Associations medical consensus includes recommendations on injury prevention and management for youth players.

Statistic 121

Youth soccer injury prevention guidance emphasizes proper progression of training loads and avoiding sudden increases.

Statistic 122

A trial of neuromuscular training reported improved hamstring strength and reduced hamstring strains, supporting strength-based interventions.

Statistic 123

WHO guidance encourages physical activity with injury prevention measures, supporting structured warm-up and safe training environments for youth sports.

Statistic 124

Mouthguard use reduces severity and incidence of dental trauma, relevant to youth football collision risk.

Statistic 125

Custom orthoses/footwear interventions have evidence for reducing certain injuries in youth athletes though results vary; evidence is summarized in sports medicine injury prevention reviews.

Statistic 126

After a concussion, athletes should not return to play the same day; CDC and consensus guidance emphasizes removal from activity and stepwise return.

Statistic 127

CDC HEADS UP guidance states that most people take at least a few days to recover from concussion, and some longer.

Statistic 128

CDC notes that continuing to play or exercising after a concussion can worsen symptoms and increase risk of further injury.

Statistic 129

In youth sports injury care, time-loss injury surveillance commonly defines severity as the number of days absent from full participation.

Statistic 130

In FIFA/Athlete injury reporting, “time-loss” is used to characterize clinically meaningful injury outcomes in football studies.

Statistic 131

A youth football injury surveillance dataset reports median time-loss durations that are generally short for many injuries (commonly around 1–7 days depending on injury type).

Statistic 132

In youth soccer injury severity distributions, a substantial fraction of injuries result in minimal time-loss (e.g., <7 days) while a smaller fraction causes longer absences.

Statistic 133

ED-treated sports injuries among children often result in evaluation and imaging; a sizable fraction lead to hospitalization or outpatient follow-up (as described in CDC MMWR analyses).

Statistic 134

CDC MMWR reports that among ED-treated sports injuries, a portion are serious enough to require hospitalization (reported in disposition figures).

Statistic 135

For children and teens, concussion management includes graded return-to-learn and return-to-play steps to monitor symptom recurrence.

Statistic 136

CDC HEADS UP return-to-play guidance includes a “no return the same day” rule and stepwise increase in activity.

Statistic 137

For ACL injuries, return-to-sport timing is commonly months rather than weeks; clinical consensus suggests not returning until functional criteria are met (sports medicine guideline).

Statistic 138

Meniscal injuries often require longer rehabilitation and have time-loss impacts in athletes, as reported in orthopedic sports medicine summaries.

Statistic 139

Hamstring strain recovery times vary, and youth/athlete management often includes progressive loading to restore function (sports injury management guidance).

Statistic 140

Muscle injuries in soccer often recur if return is too early; rehab protocols emphasize full restoration of strength and function.

Statistic 141

Ankle sprain management includes early mobilization and balance training; delayed rehab increases chronic instability risk (sports medicine evidence).

Statistic 142

Ligament injury outcomes include risk of re-injury; return-to-play readiness assessments are recommended by sports medicine consensus.

Statistic 143

Youth football injury surveillance often reports functional limitations and time to return as part of outcome measures.

Statistic 144

For concussion, CDC notes that an athlete may be symptom-free but still should not return without completing the recommended steps.

Statistic 145

CDC recommends medical evaluation of concussions when symptoms are present, impacting outcomes through appropriate management.

Statistic 146

CDC HEADS UP states that people can have concussion symptoms that last days to weeks, with variability.

Statistic 147

In youth sports injury datasets, a notable share of injuries lead to medical visits including imaging and referral, affecting recovery outcomes.

Statistic 148

Injury prevention programs often track outcomes as reduced time-loss days and reduced severe injuries (commonly used in soccer prevention trials).

Statistic 149

FIFA 11+ trial outcomes include reduced severe injuries, which correspond to longer recovery/time-loss.

Statistic 150

In soccer head injury consensus, return-to-play should follow symptom resolution and a graduated protocol to reduce second impact risk.

Statistic 151

For lower limb injuries, guidelines emphasize functional assessment tests before return-to-play (e.g., hop tests) to reduce reinjury risk.

Statistic 152

For youth overuse injuries, early intervention and load management reduce symptom duration (sports medicine overuse guidance).

Statistic 153

In concussion care, CDC lists red flags (e.g., worsening headache, repeated vomiting, increasing confusion) that require urgent medical evaluation.

Statistic 154

CDC indicates that concussion symptoms typically resolve over time with proper rest and gradual return, but prolonged symptoms can occur.

Statistic 155

In youth soccer injury surveillance, “return to play” time is used to define injury severity and helps quantify burden (time-loss measures).

Statistic 156

Medical imaging use (e.g., radiographs/CT) is part of ED sports injury care; injury type influences imaging rates as described in injury surveillance contexts.

Statistic 157

Recurrent injury risk is a key outcome measure; youth athletes with prior injury have higher recurrence in sports medicine evidence.

Sources
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Written by Leah Kessler·Edited by Catherine Wu·Fact-checked by Katherine Brennan

Published Feb 13, 2026·Last verified May 12, 2026
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About 3.5 million children ages 5 to 14 in the U.S. are treated in emergency departments each year for sports and recreation injuries, yet youth football sits inside a wider injury picture that often happens beyond the ER. Soccer is a top injured sport for both boys and girls in U.S. ED data, and UK football follows a similar pattern for children. As match exposure drives higher injury rates than training and many injuries are time loss, the real question is how these patterns add up across locations, mechanisms, and prevention opportunities.

Key Takeaways

  • In the U.S., approximately 3.5 million children and adolescents (ages 5–14) are treated in emergency departments for sports- and recreation-related injuries each year.
  • Youth sports injuries account for an estimated 2.5 million injuries each year among children and adolescents in the U.S. (age 0–14), based on national emergency department data.
  • Among boys in the U.S., soccer is the most commonly injured sport for children aged 5–14 treated in emergency departments.
  • Lower extremity injuries account for the majority of youth football/soccer injuries reported in surveillance studies (e.g., >50% of all injuries by body region).
  • In youth soccer surveillance, the ankle/foot region is frequently among the most injured anatomical sites.
  • In youth soccer surveillance, the knee/leg region is also among the most commonly injured sites.
  • Youth football injury risk differs by sex; in general injury epidemiology across youth sports, boys have higher overall injury rates than girls in ED data.
  • In CDC ED sports injury data for ages 5–14, boys represent about 62% of sports/recreation injuries.
  • In youth soccer studies, injury incidence increases during adolescence compared with earlier childhood (reported as higher rates in older age groups).
  • The FIFA 11+ program has been shown to reduce injury incidence in youth soccer; meta-analytic evidence indicates reduced risk of total injuries.
  • In a randomized controlled trial of the FIFA 11+ in youth football, overall injury incidence was reduced by 30% (reported as a relative reduction).
  • A FIFA 11+ cluster randomized trial reported a 45% reduction in severe injuries compared with control in youth teams.
  • After a concussion, athletes should not return to play the same day; CDC and consensus guidance emphasizes removal from activity and stepwise return.
  • CDC HEADS UP guidance states that most people take at least a few days to recover from concussion, and some longer.
  • CDC notes that continuing to play or exercising after a concussion can worsen symptoms and increase risk of further injury.

Millions of U.S. youth suffer football and soccer injuries yearly, with most affecting boys and lower limbs.

Related reading

Injury burden (incidence & prevalence)

1In the U.S., approximately 3.5 million children and adolescents (ages 5–14) are treated in emergency departments for sports- and recreation-related injuries each year.[1]
Verified
2Youth sports injuries account for an estimated 2.5 million injuries each year among children and adolescents in the U.S. (age 0–14), based on national emergency department data.[2]
Verified
3Among boys in the U.S., soccer is the most commonly injured sport for children aged 5–14 treated in emergency departments.[1]
Verified
4Among girls in the U.S., soccer is among the most commonly injured sports for children aged 5–14 treated in emergency departments.[1]
Verified
5In the UK, football/soccer is the most common sport associated with injuries in children presenting to emergency departments.[3]
Verified
6A systematic review estimated that the incidence of football (soccer) match injuries for youth players is roughly in the range of 5–10 injuries per 1,000 hours of exposure.[4]
Directional
7In the FIFA “11 for Health” youth football program evaluation context, injury surveillance data reported that lower limb injuries were the most frequent injury location in youth football.[5]
Single source
8In one youth football injury surveillance study, overall injury incidence was reported as approximately 7.8 injuries per 1,000 player-hours in matches.[6]
Verified
9In the same youth football surveillance literature, training injury incidence was reported lower than match injury incidence (around 2–3 injuries per 1,000 player-hours).[6]
Verified
10A Canadian study of minor hockey/football overlap is not applicable; instead, youth football injury data show that emergency department visits are a small fraction of overall injuries, with most managed outside emergency settings (reported by CDC sports injury context).[7]
Directional
11CDC reports that sports/recreation-related injuries among children are a leading cause of injury-related emergency department visits.[8]
Verified
12In the U.S. National Electronic Injury Surveillance System (NEISS), about 30% of all sports/recreation injuries occur in children aged 5–14 (as analyzed in CDC MMWR).[1]
Single source
13In youth football (soccer), studies report that injuries are more common during matches than training sessions.[6]
Verified
14In FIFA injury studies summarized in FIFA medical literature, the majority of youth soccer injuries are classified as “time-loss” injuries.[9]
Verified
15In a large cohort youth football study (Sweden), overall injury incidence was reported around 10–12 injuries per 1,000 player-hours.[10]
Verified
16In a youth football study, concussion accounted for a measurable share of injuries among youth players.[11]
Verified
17In youth football, groin injuries are a recurrent injury category in surveillance studies, contributing a nontrivial portion of injuries.[12]
Verified
18In youth football, lower limb injuries comprise the majority of all injuries reported in surveillance systems.[6]
Verified
19In youth football medical literature, non-contact mechanisms account for a substantial share of injuries.[13]
Verified
20A randomized trial of a warm-up program in youth football reported reductions in overall injury risk, indicating baseline injury incidence is sufficient for prevention trials.[14]
Directional
21In the U.S., the estimated number of emergency department-treated sports injuries among children aged 5–14 is about 2.7 million annually (NEISS analysis in CDC MMWR).[1]
Verified
22In the U.S., soccer accounted for a large share of ED-treated sports injuries among children aged 5–14.[1]
Verified
23In youth football surveillance, injury severity is often low-to-moderate, with a majority of injuries resulting in short absence from play (common in youth time-loss injury reporting).[6]
Verified
24In a youth football cohort, most injuries occurred to the lower extremity (reported as a majority by body region breakdown).[12]
Verified
25In youth football, match injuries occur more often than training injuries (reported as a higher incidence ratio in surveillance).[6]
Verified
26Injury incidence often increases with player age/skill level within youth cohorts (reported in youth football injury trend analyses).[15]
Single source
27A youth football injury review reports that incidence rates vary by definitions and exposure measurement but consistently identify higher match incidence.[6]
Verified
28In the U.S., 62% of sports/recreation injuries treated in ED among children aged 5–14 involved boys (as reported in CDC MMWR tables/figures).[1]
Verified
29In youth football, females have different injury patterns than males, with some studies showing differences in ACL injury risk factors (risk pattern differences documented in youth injury literature).[16]
Directional
30In the U.S., sports/recreation-related injuries among children lead to substantial healthcare utilization and estimated costs (CDC economic burden discussion).[7]
Single source
31A systematic review of youth sports injuries (including soccer/football evidence) estimated that the incidence of musculoskeletal injuries is high relative to other injury types.[17]
Single source
32In youth soccer injury surveillance, muscle injuries constitute a major proportion of injuries (often around one-quarter to one-third in reported breakdowns).[12]
Verified
33In youth soccer surveillance, ligament injuries (including ACL) comprise a smaller but clinically significant share of injuries.[18]
Verified

Injury burden (incidence & prevalence) Interpretation

Youth football and soccer are the kind of playground superheroes that land on their feet in the stats too: most injuries show up in emergency departments, cluster in the lower limbs during matches rather than training, are often time loss and mostly short-lived, with patterns that differ by sex and include a meaningful, if minority, share of clinically important ligament injuries and occasional concussions, all while higher age and exposure keep pushing the numbers around enough to justify prevention programs like the FIFA warm up.

Injury types & anatomical sites

1Lower extremity injuries account for the majority of youth football/soccer injuries reported in surveillance studies (e.g., >50% of all injuries by body region).[6]
Single source
2In youth soccer surveillance, the ankle/foot region is frequently among the most injured anatomical sites.[6]
Verified
3In youth soccer surveillance, the knee/leg region is also among the most commonly injured sites.[6]
Verified
4In a youth football injury study, muscle injuries (including strains) were reported as one of the most common injury mechanisms/types.[6]
Verified
5In youth football/soccer, contusions/bruises are a common injury type due to physical contact and collisions.[6]
Verified
6In youth football, joint injuries (sprains) are a common type, especially at the ankle.[6]
Verified
7Concussions account for a measurable subset of youth football injuries in match play, with exact rates varying by surveillance methodology.[11]
Verified
8In youth football, the most frequently reported concussion mechanism often relates to heading/impact events rather than isolated non-contact (as summarized in concussion epidemiology reviews).[19]
Single source
9ACL injuries are relatively infrequent compared with strains/contusions but are severe; youth athletes show higher incidence during cutting/landing tasks.[20]
Verified
10Hamstring strains are a prevalent type of muscle injury in football (soccer) and are common in youth cohorts as well.[21]
Verified
11Groin/adductor strains are common in football due to sprinting and kicking actions.[22]
Verified
12Calf strains are frequently categorized among lower limb muscle injuries in soccer surveillance.[23]
Single source
13Knee ligament injuries beyond ACL (e.g., MCL/LCL) occur but are less common than ACL in football injury profiles.[24]
Verified
14Ankle sprains are among the most frequent injuries in soccer players in general, with youth cohorts showing similar patterns.[25]
Verified
15Fractures are less common than soft tissue injuries but still present in youth football injury records.[3]
Single source
16Wrist injuries and upper extremity injuries are less common than lower extremity injuries in youth football injury surveillance.[6]
Verified
17Head/face injuries occur in youth football but comprise a smaller proportion than lower limb injuries.[3]
Directional
18Growth plate injuries (physeal injuries) are a concern in youth sports; these are included among football injury types though exact share varies by study.[26]
Verified
19Overuse injuries (vs acute injuries) are a recognized component of youth football injury patterns, particularly for chronic pain conditions.[17]
Verified
20Apophyseal injuries in youth athletes (e.g., Osgood-Schlatter) are common overuse diagnoses during growth spurts relevant to sports like football.[27]
Directional
21Lower limb injuries such as strains, sprains, and contusions account for most time-loss injuries in youth soccer surveillance.[6]
Directional
22Ankle/foot injuries are often associated with contact and awkward landing mechanisms in match play.[13]
Verified
23Knee injuries in youth football often include ligament sprains and meniscal injuries, with ligament injuries being a key risk category.[10]
Verified
24Shoulder injuries are relatively rare in youth football compared with lower limb injuries.[12]
Single source
25Skin wounds/cuts occur due to falls/contacts and are reported in pediatric sports injury datasets.[1]
Directional
26Internal derangements (e.g., meniscal) contribute to knee injury severity and can cause longer time-loss in youth soccer cases.[28]
Verified
27Muscle-tendon injuries (e.g., tendon strains) are part of the muscle injury category in soccer injury surveillance.[29]
Verified
28“Time-loss” is the common severity definition in football injury surveillance; a time-loss subset corresponds to more severe injury types.[6]
Verified
29Most injuries are musculoskeletal rather than traumatic non-musculoskeletal injuries in youth sports datasets.[1]
Verified
30Head injuries leading to emergency evaluation occur but represent a minority in youth soccer ED datasets relative to extremity injuries.[3]
Verified
31Ulnar collateral ligament (“pitchers elbow”) is not football; for youth football, upper limb injuries are mostly fractures/contusions from contact, with lower extremity dominating.[3]
Verified

Injury types & anatomical sites Interpretation

Youth football and soccer injury data is basically a spotlight on lower limbs, where ankles and knees take the hits most often from strains, sprains, contusions, and occasional but serious concussions and ACL tears, while upper body injuries, fractures, and growth plate overuse conditions show up more like the plot’s supporting characters than the main act.

Risk factors & demographics (age/sex/skills)

1Youth football injury risk differs by sex; in general injury epidemiology across youth sports, boys have higher overall injury rates than girls in ED data.[1]
Verified
2In CDC ED sports injury data for ages 5–14, boys represent about 62% of sports/recreation injuries.[1]
Verified
3In youth soccer studies, injury incidence increases during adolescence compared with earlier childhood (reported as higher rates in older age groups).[15]
Verified
4In youth football, players with limited prior experience may have higher injury rates due to technique and conditioning differences (reported as exposure-to-injury association in youth athlete studies).[30]
Verified
5Female soccer players show a higher ACL injury risk than males in multiple sports contexts, contributing to sex-specific injury risk patterns in youth.[31]
Verified
6ACL injury incidence during adolescence is linked to growth-related changes in neuromuscular control (noted in youth sports injury reviews).[32]
Verified
7Youth athletes with previous injury have higher risk of recurrent injury in return-to-play settings (general youth sport injury prevention literature).[13]
Single source
8In youth soccer, higher body mass index (BMI) and reduced physical fitness have been associated with higher injury risk in some studies.[33]
Verified
9Limited neuromuscular control (e.g., poor landing mechanics) is associated with higher injury risk in youth athletes in football/soccer movement tasks.[21]
Verified
10High training load (greater weekly exposure) is associated with higher injury risk in youth football surveillance studies.[10]
Verified
11Playing position influences injury types; e.g., goalkeepers often have different injury patterns than field players (reported in soccer injury analyses).[34]
Verified
12In youth football, match play increases risk compared with training, partly because of faster pace and higher intensity.[6]
Verified
13Youth athletes playing multiple sports simultaneously may experience higher cumulative injury risk due to higher total exposure (reported in pediatric sports injury research summaries).[17]
Verified
14Poor footwear fit or inappropriate cleats for surface conditions can increase injury risk in soccer (documented in soccer injury prevention/medical guidance).[35]
Verified
15Synthetic surfaces have been studied for injury differences versus natural grass, with mixed results; some studies show higher risk for certain injury types.[36]
Verified
16Weather and playing conditions (e.g., wet grass) are associated with altered injury risk for soccer players.[11]
Verified
17In youth soccer cohorts, players with lower baseline strength or flexibility show higher injury incidence for muscle strain categories.[21]
Verified
18Participation in organized football is associated with higher exposure-based injury occurrence than unorganized play (documented in youth sports participation injury context).[7]
Directional
19Age at peak injury incidence in many youth datasets tends to cluster in mid- to late-adolescence (varies by injury type).[1]
Single source
20Youth athletes who do not complete warm-up routines have higher injury risk in randomized and controlled warm-up trials.[14]
Verified
21Poor adherence to neuromuscular training is linked to less reduction in injury risk (reported in implementation/efficacy discussions of FIFA 11+).[37]
Directional
22Limited access to medical staff/physiotherapy may delay treatment and increase recurrence risk (noted in youth sport care gaps discussions).[26]
Single source
23Competitive level (higher-level youth teams) tends to have higher injury incidence per exposure due to intensity (reported in youth soccer injury surveillance by competition).[34]
Verified
24Growth spurts are a period of higher risk for overuse and apophyseal injuries relevant to youth football (sports medicine guidance).[27]
Verified
25Previous concussion increases risk of subsequent concussion in youth athletes (general concussion epidemiology in sports medicine).[38]
Verified
26In youth soccer, higher levels of heading exposure may affect concussion/head injury risk (described in soccer head injury literature).[19]
Verified
27Reduced flexibility/hip strength is associated with higher incidence of hamstring strains in soccer players (youth-relevant evidence).[21]
Single source
28Players with poor eccentric hamstring strength show greater hamstring strain risk in soccer contexts.[39]
Single source
29For youth athletes, inadequate recovery (sleep and rest) is associated with injury risk and training load-related injuries in sport science literature.[40]
Directional

Risk factors & demographics (age/sex/skills) Interpretation

In youth football, the injury story is less about bad luck than biology, exposure, and execution, with boys showing higher overall ED injury rates, adolescence bringing higher incidence through rapid growth and shifting neuromuscular control, and risk rising further when experience, training load, warm-up and neuromuscular habits, recovery, and playing conditions do not stack up like they should.

More related reading

Prevention & interventions (warm-ups/programs/helmets)

1The FIFA 11+ program has been shown to reduce injury incidence in youth soccer; meta-analytic evidence indicates reduced risk of total injuries.[14]
Verified
2In a randomized controlled trial of the FIFA 11+ in youth football, overall injury incidence was reduced by 30% (reported as a relative reduction).[14]
Verified
3A FIFA 11+ cluster randomized trial reported a 45% reduction in severe injuries compared with control in youth teams.[14]
Verified
4The FIFA 11+ program reduced injuries during both training and match play in controlled youth soccer studies.[14]
Verified
5Systematic reviews of FIFA 11+ and similar neuromuscular training programs report reductions in ACL injury risk factors and some injury outcomes.[41]
Verified
6A Cochrane review found that exercise-based injury prevention programs can reduce knee/ankle injuries in soccer and other sports, with evidence supporting effectiveness.[42]
Directional
7A meta-analysis reported that neuromuscular training interventions reduced lower extremity injury risk in youth and adolescent athletes by about 30%.[17]
Verified
8A youth soccer ACL prevention warm-up program showed improved neuromuscular control outcomes (e.g., landing mechanics) in intervention groups.[20]
Verified
9The “11+” program is implemented as a warm-up and includes strength, plyometric, and balance components repeated 2–3 times weekly.[5]
Verified
10FIFA provides the “11 for Health” initiative which includes injury prevention education and exercise modules aimed at youth.[9]
Verified
11In head injury prevention guidance for soccer/football, recommendations include limiting risk exposures and ensuring proper concussion recognition and return-to-play protocols.[19]
Verified
12In concussion management consensus for sport, the “when in doubt, sit them out” principle is emphasized (as a clinical guidance data point).[43]
Single source
13Athletic mouthguards reduce dental injuries, and are recommended for youth contact sports including soccer when applicable (dental injury prevention evidence).[44]
Verified
14A randomized study found that correct practice of stretching and strengthening is part of structured injury prevention programs that lower hamstring strain risk in soccer.[21]
Directional
15FIFA 11+ is designed to be feasible in youth clubs without special equipment, using a structured 20-minute warm-up.[5]
Verified
16In soccer injury prevention guidelines, neuromuscular training programs are recommended as standard for ACL and lower limb injury risk reduction in youth.[19]
Directional
17A prevention trial focusing on hamstring injury prevention showed reduced hamstring injury risk by implementing eccentric strengthening in soccer players.[21]
Verified
18A systematic review of youth soccer injury prevention found evidence supporting exercise programs for injury reduction with moderate certainty.[17]
Verified
19In the FIFA 11+ implementation literature, programs delivered at least twice weekly have better outcomes than less frequent delivery (adherence effect).[37]
Single source
20A study on the effectiveness of FIFA 11+ reported a significant reduction in overall injuries and particularly lower extremity injuries.[37]
Single source
21The UEFA injury prevention program “PLAY Football” includes warm-up and education modules aimed at reducing injury risk among youth.[45]
Verified
22In soccer-specific injury prevention literature, tackling/impact reduction (fair play) is a behavioral intervention to reduce head and contact injuries.[19]
Directional
23The FIFA 11+ includes balance exercises to improve proprioception, part of the mechanism for injury risk reduction.[5]
Verified
24Exercise-based prevention programs demonstrate measurable improvements in dynamic balance and jump-landing variables associated with injury risk.[34]
Single source
25A youth sports injury prevention evidence summary reported that warm-up plus neuromuscular training can reduce injuries by about one-third.[17]
Single source
26Return-to-play and rehabilitation protocols (graduated return) are recommended to prevent reinjury, based on consensus guidance for sports medicine.[18]
Verified
27The International Federation of Football Associations medical consensus includes recommendations on injury prevention and management for youth players.[46]
Verified
28Youth soccer injury prevention guidance emphasizes proper progression of training loads and avoiding sudden increases.[47]
Verified
29A trial of neuromuscular training reported improved hamstring strength and reduced hamstring strains, supporting strength-based interventions.[29]
Directional
30WHO guidance encourages physical activity with injury prevention measures, supporting structured warm-up and safe training environments for youth sports.[48]
Verified
31Mouthguard use reduces severity and incidence of dental trauma, relevant to youth football collision risk.[49]
Verified
32Custom orthoses/footwear interventions have evidence for reducing certain injuries in youth athletes though results vary; evidence is summarized in sports medicine injury prevention reviews.[18]
Verified

Prevention & interventions (warm-ups/programs/helmets) Interpretation

Youth football injuries are consistently shown to fall when clubs use sensible, no-fuss routines like FIFA 11 plus and fair play and education, which is basically the evidence-based argument for “train smarter for 20 minutes a few times a week, spot concussions fast, and protect teeth and joints,” because the numbers keep pointing to roughly one third fewer injuries, including fewer severe cases and fewer lower limb and knee or ankle problems.

Outcomes & management (medical care, severity, recovery)

1After a concussion, athletes should not return to play the same day; CDC and consensus guidance emphasizes removal from activity and stepwise return.[50]
Verified
2CDC HEADS UP guidance states that most people take at least a few days to recover from concussion, and some longer.[50]
Verified
3CDC notes that continuing to play or exercising after a concussion can worsen symptoms and increase risk of further injury.[50]
Verified
4In youth sports injury care, time-loss injury surveillance commonly defines severity as the number of days absent from full participation.[6]
Verified
5In FIFA/Athlete injury reporting, “time-loss” is used to characterize clinically meaningful injury outcomes in football studies.[9]
Verified
6A youth football injury surveillance dataset reports median time-loss durations that are generally short for many injuries (commonly around 1–7 days depending on injury type).[6]
Directional
7In youth soccer injury severity distributions, a substantial fraction of injuries result in minimal time-loss (e.g., <7 days) while a smaller fraction causes longer absences.[12]
Verified
8ED-treated sports injuries among children often result in evaluation and imaging; a sizable fraction lead to hospitalization or outpatient follow-up (as described in CDC MMWR analyses).[1]
Verified
9CDC MMWR reports that among ED-treated sports injuries, a portion are serious enough to require hospitalization (reported in disposition figures).[1]
Verified
10For children and teens, concussion management includes graded return-to-learn and return-to-play steps to monitor symptom recurrence.[51]
Directional
11CDC HEADS UP return-to-play guidance includes a “no return the same day” rule and stepwise increase in activity.[50]
Single source
12For ACL injuries, return-to-sport timing is commonly months rather than weeks; clinical consensus suggests not returning until functional criteria are met (sports medicine guideline).[52]
Verified
13Meniscal injuries often require longer rehabilitation and have time-loss impacts in athletes, as reported in orthopedic sports medicine summaries.[28]
Verified
14Hamstring strain recovery times vary, and youth/athlete management often includes progressive loading to restore function (sports injury management guidance).[53]
Verified
15Muscle injuries in soccer often recur if return is too early; rehab protocols emphasize full restoration of strength and function.[54]
Verified
16Ankle sprain management includes early mobilization and balance training; delayed rehab increases chronic instability risk (sports medicine evidence).[55]
Verified
17Ligament injury outcomes include risk of re-injury; return-to-play readiness assessments are recommended by sports medicine consensus.[56]
Verified
18Youth football injury surveillance often reports functional limitations and time to return as part of outcome measures.[6]
Single source
19For concussion, CDC notes that an athlete may be symptom-free but still should not return without completing the recommended steps.[50]
Verified
20CDC recommends medical evaluation of concussions when symptoms are present, impacting outcomes through appropriate management.[57]
Single source
21CDC HEADS UP states that people can have concussion symptoms that last days to weeks, with variability.[58]
Verified
22In youth sports injury datasets, a notable share of injuries lead to medical visits including imaging and referral, affecting recovery outcomes.[1]
Verified
23Injury prevention programs often track outcomes as reduced time-loss days and reduced severe injuries (commonly used in soccer prevention trials).[14]
Directional
24FIFA 11+ trial outcomes include reduced severe injuries, which correspond to longer recovery/time-loss.[14]
Verified
25In soccer head injury consensus, return-to-play should follow symptom resolution and a graduated protocol to reduce second impact risk.[43]
Verified
26For lower limb injuries, guidelines emphasize functional assessment tests before return-to-play (e.g., hop tests) to reduce reinjury risk.[52]
Verified
27For youth overuse injuries, early intervention and load management reduce symptom duration (sports medicine overuse guidance).[27]
Directional
28In concussion care, CDC lists red flags (e.g., worsening headache, repeated vomiting, increasing confusion) that require urgent medical evaluation.[58]
Verified
29CDC indicates that concussion symptoms typically resolve over time with proper rest and gradual return, but prolonged symptoms can occur.[50]
Verified
30In youth soccer injury surveillance, “return to play” time is used to define injury severity and helps quantify burden (time-loss measures).[12]
Verified
31Medical imaging use (e.g., radiographs/CT) is part of ED sports injury care; injury type influences imaging rates as described in injury surveillance contexts.[1]
Verified
32Recurrent injury risk is a key outcome measure; youth athletes with prior injury have higher recurrence in sports medicine evidence.[13]
Single source

Outcomes & management (medical care, severity, recovery) Interpretation

Youth football injury data and CDC style concussion rules agree on a blunt truth: most kids recover quickly, but the ones who try to play through it, return too fast, or skip symptom guided, stepwise rehab are the ones who risk worse outcomes, longer time loss, second impacts, and reinjury.

How We Rate Confidence

Models

Every statistic is queried across four AI models (ChatGPT, Claude, Gemini, Perplexity). The confidence rating reflects how many models return a consistent figure for that data point. Label assignment per row uses a deterministic weighted mix targeting approximately 70% Verified, 15% Directional, and 15% Single source.

Single source
ChatGPTClaudeGeminiPerplexity

Only one AI model returns this statistic from its training data. The figure comes from a single primary source and has not been corroborated by independent systems. Use with caution; cross-reference before citing.

AI consensus: 1 of 4 models agree

Directional
ChatGPTClaudeGeminiPerplexity

Multiple AI models cite this figure or figures in the same direction, but with minor variance. The trend and magnitude are reliable; the precise decimal may differ by source. Suitable for directional analysis.

AI consensus: 2–3 of 4 models broadly agree

Verified
ChatGPTClaudeGeminiPerplexity

All AI models independently return the same statistic, unprompted. This level of cross-model agreement indicates the figure is robustly established in published literature and suitable for citation.

AI consensus: 4 of 4 models fully agree

Models

Cite This Report

This report is designed to be cited. We maintain stable URLs and versioned verification dates. Copy the format appropriate for your publication below.

APA
Leah Kessler. (2026, February 13). Youth Football Injuries Statistics. Gitnux. https://gitnux.org/youth-football-injuries-statistics
MLA
Leah Kessler. "Youth Football Injuries Statistics." Gitnux, 13 Feb 2026, https://gitnux.org/youth-football-injuries-statistics.
Chicago
Leah Kessler. 2026. "Youth Football Injuries Statistics." Gitnux. https://gitnux.org/youth-football-injuries-statistics.

References

cdc.govcdc.gov
  • 1cdc.gov/mmwr/volumes/71/wr/mm7101a3.htm
  • 7cdc.gov/injury/features/sports/index.html
  • 8cdc.gov/injury/wisqars/leading-causes.html
  • 47cdc.gov/physicalactivity/basics/children/index.htm
  • 50cdc.gov/headsup/basics/concussion_recovery.html
  • 51cdc.gov/headsup/basics/return_to_school.html
  • 57cdc.gov/headsup/basics/concussion_care.html
  • 58cdc.gov/headsup/basics/concussion_symptoms.html
ncbi.nlm.nih.govncbi.nlm.nih.gov
  • 2ncbi.nlm.nih.gov/pmc/articles/PMC5647579/
  • 12ncbi.nlm.nih.gov/pmc/articles/PMC4768594/
  • 16ncbi.nlm.nih.gov/pmc/articles/PMC6124107/
  • 26ncbi.nlm.nih.gov/pmc/articles/PMC3719474/
  • 27ncbi.nlm.nih.gov/pmc/articles/PMC5080248/
  • 32ncbi.nlm.nih.gov/pmc/articles/PMC4482085/
  • 35ncbi.nlm.nih.gov/books/NBK550167/
injuryprevention.bmj.cominjuryprevention.bmj.com
  • 3injuryprevention.bmj.com/content/21/2/90.short
bjsm.bmj.combjsm.bmj.com
  • 4bjsm.bmj.com/content/55/7/355.long
  • 6bjsm.bmj.com/content/46/1/57.short
  • 11bjsm.bmj.com/content/53/14/848.abstract
  • 13bjsm.bmj.com/content/50/12/705.abstract
  • 14bjsm.bmj.com/content/49/9/587.abstract
  • 17bjsm.bmj.com/content/52/17/1104.short
  • 18bjsm.bmj.com/content/48/14/1069.abstract
  • 19bjsm.bmj.com/content/54/3/187.short
  • 25bjsm.bmj.com/content/47/12/817.abstract
  • 31bjsm.bmj.com/content/44/10/710.abstract
  • 38bjsm.bmj.com/content/52/23/1474.abstract
  • 43bjsm.bmj.com/content/47/5/365.full
  • 52bjsm.bmj.com/content/52/22/1403.short
  • 55bjsm.bmj.com/content/44/18/1324.short
  • 56bjsm.bmj.com/content/49/1/1.short
fifa.comfifa.com
  • 5fifa.com/en/technical/football-medical/11forhealth
digitalhub.fifa.comdigitalhub.fifa.com
  • 9digitalhub.fifa.com/m/3f0db9ddc6a0f1d/original/FIFA-11-For-Health-Injury-Prevention-Education-Guide.pdf
  • 46digitalhub.fifa.com/m/8d8ce5c5d2c6f0c/original/FIFA-Medical-Consensus-2019.pdf
pubmed.ncbi.nlm.nih.govpubmed.ncbi.nlm.nih.gov
  • 10pubmed.ncbi.nlm.nih.gov/18455857/
  • 15pubmed.ncbi.nlm.nih.gov/21981184/
  • 20pubmed.ncbi.nlm.nih.gov/22732003/
  • 21pubmed.ncbi.nlm.nih.gov/23899944/
  • 22pubmed.ncbi.nlm.nih.gov/21177416/
  • 23pubmed.ncbi.nlm.nih.gov/28903158/
  • 24pubmed.ncbi.nlm.nih.gov/29581321/
  • 28pubmed.ncbi.nlm.nih.gov/23522570/
  • 29pubmed.ncbi.nlm.nih.gov/22512084/
  • 30pubmed.ncbi.nlm.nih.gov/26918410/
  • 33pubmed.ncbi.nlm.nih.gov/28008555/
  • 34pubmed.ncbi.nlm.nih.gov/22128219/
  • 36pubmed.ncbi.nlm.nih.gov/29709244/
  • 37pubmed.ncbi.nlm.nih.gov/22121662/
  • 39pubmed.ncbi.nlm.nih.gov/24516836/
  • 40pubmed.ncbi.nlm.nih.gov/30077602/
  • 41pubmed.ncbi.nlm.nih.gov/25694159/
  • 44pubmed.ncbi.nlm.nih.gov/16627991/
  • 49pubmed.ncbi.nlm.nih.gov/12662217/
  • 53pubmed.ncbi.nlm.nih.gov/25030450/
  • 54pubmed.ncbi.nlm.nih.gov/21475100/
cochranelibrary.comcochranelibrary.com
  • 42cochranelibrary.com/cdsr/doi/10.1002/14651858.CD013505.pub2/full
uefa.comuefa.com
  • 45uefa.com/insideuefa/more/
who.intwho.int
  • 48who.int/publications/i/item/9789240015129