What She’s Up Against: The Hidden Challenges Facing Female Youth Athletes

Introduction

Youth sports participation among female athletes has increased significantly over the past few decades. However, despite numerous studies examining sport specialization and injury risk, sex differences are often overlooked.¹ As a result, important sex-specific factors such as differences in musculoskeletal development, hormonal influences, neuromuscular control, and injury patterns may not be fully addressed. Understanding these differences is essential for optimizing training programs, enhancing injury prevention strategies, and ensuring equal opportunities in sports. This article explores the unique challenges female youth athletes face, including injury risk, disparities in strength training, puberty-related changes, and social pressures.

Injury Risk and Prevention

Female athletes possess unique physiological, biomechanical, and psychological characteristics that influence both their performance and injury risk.² These factors contribute to a heightened susceptibility to certain injuries, particularly overuse injuries, anterior cruciate ligament (ACL) tears, and stress fractures. Overuse injuries occur because of repetitive stress without adequate recovery time, and female athletes—especially those who specialize in a single sport at a young age—are particularly vulnerable.³ In a cross-sectional study by Post et al, female basketball players were nearly four times more likely to report an overuse injury compared to their male counterparts (odds ratio [OR], 3.7; 95% CI, 2.1–6.6; P < 0.001).⁴ These overuse injuries are also more likely to involve the growth plate in young athletes, leading to apophyseal disruptions such as tibial tubercle apophysitis (Osgood-Schlatter disease), calcaneal apophysitis (Sever disease), medial epicondyle apophysitis (Little Leaguer’s elbow), and traction apophysitis of the hip.⁵

ACL injuries are upwards of 8 times more common in female athletes than in their male counterparts due to a combination of nonmodifiable and modifiable risk factors. Several anatomical factors contribute to this disparity, including increased tibial slope, a smaller femoral notch, a wider pelvis, and a greater Q-angle—all of which can contribute to increased knee valgus stresses.⁶^,⁷ In addition, neuromuscular differences play a key role. Female athletes often exhibit quadriceps-dominant movement patterns and decreased hamstring activation, both of which are associated with improper landing mechanics and increased risk of ACL injury tears.⁸ A recent study by Gianakos et al further evaluated both intrinsic and extrinsic risk factors for ACL injuries referencing additional anatomic factors including incongruent tibiofemoral joint geometry, notch thickness, and greater overall knee laxity.⁹ This comprehensive review also describes neuromuscular risk factors, emphasizing the role of dynamic knee valgus in alternating the tensile forces of an athlete during landing and cutting. Given the breadth of factors contributing to an athlete’s risk of ACL injury, a comprehensive understanding of these risk factors is essential for developing effective, sex-specific injury prevention strategies for female athletes.

Despite the importance of strength training in injury prevention and performance, many female athletes lack access and equal opportunity to structured strength and conditioning programs.¹⁰ A recent study demonstrated that youth participation in strength training programs from an early age irrespective of gender can enhance performance while reducing injury risk.¹¹ With an increase in sports-related overuse injuries, it has been suggested that resistance training is an effective means of injury prevention. A review by Zwolski et al claimed that resistance training amongst youth athletes improved muscular strength, power, running speed, endurance, dynamic balance, and flexibility.¹² These findings emphasize the connection between resistance training and its role in addressing modifiable risk factors in the youth female athlete.

Among the modifiable risk factors, deficits in strength and neuromuscular control underscore the importance of structured strength and conditioning programs targeted at reducing ACL injury risk. A meta-analysis by Yoo et al evaluating the effect of pre- and in-season neuromuscular training on the prevention of the ACL injury showed an OR of 0.4 among those receiving preventative training, highlighting the prevention of ACL injury in female athletes.¹³ Subanalysis further revealed that an emphasis on plyometrics and strengthening exercise were the most important components. Developing the posterior chain—specifically the gluteal muscles and hamstrings—helps counteract quadriceps dominance and promotes proper landing mechanics. Neuromuscular training builds on this by improving proprioception, balance, and coordination, which further enhances movement control and has been shown to significantly reduce the risk of lower extremity injuries including ACL tears in female athletes.¹⁴

Physical Development and Puberty

Puberty introduces significant physiological changes for female athletes, including hormonal fluctuations, shifts in body composition, and the onset of menstruation, all of which can impact performance, recovery, and injury risk.^15,16 Hormone levels vary across the menstrual cycle: during the follicular phase (days 1–14), elevated estrogen may enhance endurance and muscle recovery, while the luteal phase (days 15–28) is linked to increased fatigue, reduced coordination, and greater injury risk.¹⁷ By educating young athletes about training intensity based on cycles, providers may support more informed training and recovery strategies. Despite the growing interest in understanding the role of hormones in sports injuries, the factors influencing ACL tears in female athletes have been understudied. Herzberg et al conducted a systematic review and meta-analysis examining the relationship between menstrual cycle phases, hormonal contraceptive use, and ACL injury risk.¹⁸ The authors found that ACL injuries were more likely to occur during the preovulatory and ovulatory phases of the menstrual cycle, periods characterized by elevated estrogen levels. Additionally, the use of hormonal contraceptives was associated with a reduced risk of ACL injuries, suggesting that hormonal fluctuations play a significant role in ligamentous laxity and injury susceptibility.¹⁸

Female athletes are also at risk for the Female Athlete Triad—low energy availability, menstrual dysfunction, and decreased bone density—which has evolved into the broader concept of Relative Energy Deficiency in Sport (RED-S), encompassing additional consequences such as impaired immunity, cardiovascular health issues, and psychological effects.^19,20 Under-fueling can lead to stress fractures, delayed growth, poor muscle development, and prolonged recovery. Anjos et al further emphasized that intensive training combined with inadequate nutrition can negatively affect pubertal development and increase injury risk.¹⁵

Psychological and Social Pressure

Beyond physiological differences, female athletes face unique psychological and social challenges that can impact their confidence, mental health, and long-term participation in sports. Societal expectations and body image concerns may lead young female athletes to feel self-conscious about their appearance, potentially discouraging them from engaging in strength training due to fears of becoming “too muscular” or in other cases “too thin.” The rise of social media adds another layer of pressure, as young female athletes are frequently exposed to idealized body standards and comparison, which can worsen body image and self-esteem.²¹

As a result, young female athletes are at increased risk for disordered eating, body dissatisfaction, anxiety, and depression.²² These mental health concerns are not only prevalent but carry physical implications—research suggests that athletes experiencing psychological distress are twice as likely to sustain a sports-related injury.²³ The internalization of perfectionism coupled with pressures of altering their appearance may contribute to burnout and lower likelihood of long-term athletic participation. Despite these challenges, female athletes exhibit notable psychological resilience, highlighting the need for increased advocacy, mentorship, and mental health resources to support female athletes.²²

Access to Resources and Opportunities

Despite increased participation in youth sports, female athletes still experience disparities in coaching, facilities, and funding.²⁴ Coaching disparities in youth sports are evident not only in the level of expertise and training among coaches, but also in the underrepresentation of women, both of which can significantly shape the experiences and development of young athletes. Female coaches across all sports and levels are underrepresented on a global scale despite a more player-centered approach to coaching that is likely to positively impact youth sport retention.²⁵ Access to sports opportunities for female athletes also remains limited even at the youth level, with disparities especially pronounced among those from low-income households.²⁶ This imbalance extends beyond participation, as sports medicine literature has predominantly focused on male athletes, even within co-educational sports, resulting in a limited understanding of female-specific health and performance needs.^27,28 Together, these barriers support the need for intentional and equity-driven investments, policies, and research for the advancement of female athletes in youth sports.

Conclusion and Further Recommendations 

Female youth athletes face unique challenges that impact their performance, health, and long-term participation in sports. Addressing injury risks, training disparities, puberty-related changes, and social pressures require targeted strategies and greater equity in resources and research. Supporting these athletes with informed, inclusive approaches is key to helping them thrive both on and off the field.

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