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Article

Injuries in French High-Level and National-Level Women Artistic Gymnastics: One-Year Prevalence and Associated Factors

1
Inter-university Laboratory of Human Movement Biology, University Jean Monnet Saint-Etienne, Lyon 1, University Savoie Mont-Blanc, EA 7424, 42023 Saint-Etienne, France
2
Sports Medicine Unit, Department of Clinical and Exercise Physiology, Faculty of Medicine, University Hospital of Saint-Etienne, 42055 Saint-Etienne, France
3
Pôle France de Gymnastique de Saint Etienne, 3 Allée des Frères Gauthier, 42100 Saint-Etienne, France
4
Commission Médicale de la Fédération Française de Gymnastique, 7ter Cours des Petites Ecuries, 75010 Paris, France
5
Plateau Technique Médico Sportif de L’office Médical des Sports, 24 Avenue du Président Roosevelt, 77100 Meaux, France
6
Consultation de Traumatologie du Sport du Grand Hôpital de l’Est Francilien (GHEF), 6–8 Rue Saint Fiacre, 77100 Meaux, France
7
Mines Saint-Etienne, INSERM, U 1059 Sainbiose, CIS, University Lyon, University Jean Monnet Saint-Etienne, 42023 Saint-Etienne, France
*
Author to whom correspondence should be addressed.
Appl. Sci. 2023, 13(19), 10600; https://doi.org/10.3390/app131910600
Submission received: 12 July 2023 / Revised: 19 September 2023 / Accepted: 20 September 2023 / Published: 22 September 2023
(This article belongs to the Special Issue Advances in Sport Injury Prevention)

Abstract

:
Objective: The aims of this study were (1) to determine the one-year prevalence of injuries and their characteristics and (2) to analyze potential injury risk factors in high-level/national-level women artistic gymnasts. Methods: Competitive women artistic gymnasts training more than 10 h per week in a national training center and a TOP 12 club in France were invited to participate in a retrospective study through an online questionnaire about their self-reported injuries and potential injury risk factors (e.g., previous injuries, diseases, weight modification) during the 2020/2021 season. Results: A total of 88 gymnasts between 9 and 23 years old, who trained on average 22.0 ± 6.2 h per week, answered the questionnaire. Ninety-five injuries were reported by 62 (70.5%) of the 88 gymnasts. The one-year injury prevalence was 70.5% (95% CI 60.9 to 80.0%). Gymnasts had, on average, 1.1 ± 1.0 injuries per year. The most common reported injury location was the knee (25.3%), and the most common reported injury type was the ligament (26.3%). Having an injury during the previous season (OR = 9.06; CI 95% 2.66 to 36.73; p = 0.0007) and using a prevention program (OR = 3.97; CI 95% 1.46 to 11.15; p = 0.007) were associated with a higher risk of injury in the multivariate analysis. Conclusions: More than 70% of French high-level/national-level gymnasts had at least one injury during the 2020/2021 season. This high injury rate supports the need to promote injury prevention. However, in the present study, using a prevention program was associated with a higher risk of injury. There is thus a need to improve injury prevention strategies to counter the high injury risk and its potential consequences.

1. Introduction

Women’s Artistic Gymnastics (WAG) is an Olympic sport requiring numerous hours of training from a very young age [1]. Becoming a high-level gymnast requires training for more than 30 h per week for about 46 weeks per year, starting at 11 years old [1]. In France, this intensive training could be done by high-level gymnasts trained within national training centers (Pôles France). These structures are recognized by the French Sport Ministry and labeled by the Gymnastics French Federation: “FFGym, https://www.ffgym.fr/Equipe_de_France/Faire_du_Haut_Niveau/Les_poles (accessed on 19 September 2023)”. Other gymnasts not involved in national training centers can have similar intensive training and compete at the national level by training within the TOP 12 clubs, representing the first division of the French team championship.
WAG activity generally leads to injury risk [2,3,4,5,6,7,8]. A gymnast can have between 2.5 and 3.6 injuries per year [2]. The injury incidence was higher during competition and preseason than during training periods [4]. The prevalence of injuries increased with the number of training hours [6,8]. Most injuries involved the lower limb [2,4], and sprains and strains were the most common injury types [5,7]. This knowledge on WAG injuries mainly comes from studies performed in National College Athletics Association (NCAA) gymnastics [4,5,6]. This practice differs from high-level/national-level gymnasts, who are often younger and train more than NCAA gymnasts but have fewer competitions during the season and different sporting and governing body organizations [4,5,6,7,8,9]. Since injury epidemiology represents the first step of the injury prevention sequence [10], there is a need to extend injury epidemiological knowledge to this specific population of high-level/national-level (i.e., national training centers and TOP 12 clubs in France).
In addition, van Mechelen et al. [10] suggested developing injury risk reduction measures based on an understanding of internal (e.g., physical defect, physical fitness, age, sex, previous injuries, psychological factors, and physical build) and external (e.g., sports-related factors, venue equipment, weather conditions, and trainer) injury risk factors [10,11]. Through a systematic review, Campbell et al. [2] found that a higher competition level, an older age, a greater body mass, and increased life stress were determinants of injuries. An injury during the previous season was also reported as a risk factor for an injury in gymnastics [6], as were the number of training hours, age, and sports experience [12]. The proportion of injuries was higher in the floor apparatus (39%) and especially during the landings (76%) [2,13]. However, only a few injury risk factors have been explored and analyzed in gymnastics. It justifies the need to continue their understanding by extending this research to other risk factors, such as lifestyle (e.g., sleep, nutrition, school, and daily organization) and mental health, which can play a role on injuries [14,15,16]. Indeed, injuries can impact mental health and quality of life and could have long-term effects physically as well as psychologically and vice versa [15,17,18,19]. Palmer et al. [20] reported that the prevalence of depression reached 6.6% in Olympic athletes during their careers. Thus, a better understanding of mental health status and its potential impact on injuries in high-level/national-level gymnasts is needed.
In this context, the aims of this study were (1) to determine the one-year prevalence of injuries and their characteristics and (2) to analyse potential injury risk factors in high-level/national-level women artistic gymnasts.

2. Methods

2.1. Study Design and Overall Procedures

We conducted an observational retrospective study with data collection using an online questionnaire sent at the end of the 2020/2021 season to the French women artistic gymnasts from the national training center and TOP 12 clubs in France. The present study was approved by the Saint-Etienne University Hospital Ethics Committee (IRB32N232016/CHUSTE).

2.2. Population

The targeted population were all the competitive French WAG training in a national training center (INSEP, Saint-Etienne and Marseille, Meaux and Dijon) or a TOP 12 club (first club division; Avoine-Beaumont, Haguenau, Meaux, Schiltigheim, Colomiers, Saint-Etienne, Beaucaire-Tarascon, Hyères, Combs-la-Ville, Dunkerque, Hénin-Beaumont, and Rouen).
For the recruitment, the primary investigator (SC) contacted each coach from each national training center or TOP 12’s club by phone or email to present the study objective. When coaches/structures accepted to participate in the study, they were asked to send the list of eligible gymnasts to the investigator (SC), including name, first name, and email.
The questionnaire was then sent directly by the main investigator (SC) by email to the eligible gymnasts. A written information letter about the study objective and modality was included at the beginning of the questionnaire for the gymnasts and their parents (especially for the under 18 years old gymnasts).
Inclusion criteria were being competitive in women’s artistic gymnastics, training in a national training center or in a TOP 12 club, training more than 10 h per week, and replying to the online questionnaire. There were no exclusion criteria.

2.3. Definitions and Data Collection

In this study, we defined injury as “all discomfort or physical pain impacting the training during seven days or more (interruption or limitation of the practice)” [21]. The injury definition was presented to the gymnasts in the questionnaire.
Data were collected using an online questionnaire developed on Google Forms. This questionnaire aimed to determine the most encountered injuries in the targeted population of WAG and their potential risk factors. Thus, we asked gymnasts about their injuries during the 2020–2021 season, as well as general information, social life, health status, characteristics of training, performance level, diseases, mental health, and nutrition during the previous season (the questionnaire is in Supplementary Material). The questionnaire was elaborated based on the questionnaire from Jederström et al. [14]. The questionnaire was created by the first author (a former elite gymnast, resident in general medicine and sports medicine) and co-investigators of the research (a professor in physiology and sports medicine physician, physiotherapist, Ph.D. student in sports performance engineering, and research assistant), and also checked twice by the national federal physician (PB). Before sending the questionnaire to the gymnasts, it was tested twice on three gymnasts of the targeted population (once in Word format and once in Google Forms format) in order to check its understanding and feasibility. The gymnasts had to fill out the questionnaire themselves; no supervision was asked, but parents were allowed to help, especially for young gymnasts.
The questionnaire was composed of 52 questions and was divided into several parts:
  • General information: anthropometric data, puberty, chronic disease, previous injuries, number of hours of training, number of years of gymnastics practice, and competition’s level;
  • Lifestyle (school, school adaptation (i.e., flexible schedule (yes/no)), transport, living place…);
  • Sleep (quantity and quality [22]);
  • Injuries during the last season (2019/2020), corresponding to the primary outcome;
  • Mental health [16];
  • Eating habits [14,16,22].
The topics of the questions are presented in Table 1, and the details are in Supplementary Material.
The questions were related to the 2020/2021 gymnastic season, from the 1 September 2020 to the 31 August 2021. The questionnaire was opened for three months, between November 2021 and February 2022.

2.4. Data Analysis

First, we performed a descriptive analysis using frequency and percentages for categorical data and means and standard deviations (SD) for continuous variables, and we calculated the one-year prevalence of injured gymnasts by dividing the number of gymnasts having had at least one injury during the season 2020–2021 by the total number of participating gymnasts.
Second, in order to identify potential injury risk factors, we conducted an univariate analysis using a logistic regression with injury during the season 2020–2021 (yes/no) as dependent variable and as independent variables: age, menstruations, chronic disease, injury in the previous season, years of practice, number of hours of training before the season 2020–2021, level during the season 2019–2020, school level, school adaptation, number of hours of school, number of hours in transport, sedentary time, type of residence, number of hours of sleep, sleep quality, number of hours of training during the season, competition participation, number of competition, level of performance during the season, feeling empty following a prevention program, having a disease, being infected with COVID, being vaccinated against COVID, stress, anxiety, sadness, frustration, disgust, low morale, training apprehension, eating disorders, irritability, feeling of inferiority, regular or irregular menstrual cycles, snacking, being worried about her weight, and being forced or compelled to gain or lose weight. Then, we performed a multivariable analysis by including only variables that were significant (p < 0.05) in the univariate analysis. The unity of analysis was a gymnast. Odds ratios (OR) were calculated for univariate and multivariable analyses and presented with a 95% confidence interval (CI 95%).
Analyses were done with Excel® (Microsoft Office, 2021) and R (version 4.0.2, © Copyright 2020 The Foundation for Statistical Computing (Comprehensive R Archive Network: “http://www.R-project.org (accessed on 19 September 2023)”).

3. Results

3.1. Population

From the total of 17 eligible structures in France (5 national training centers and 12 TOP 12 clubs), we obtained answers and approval from 12: 5 national training centers and 7 TOP 12 clubs (Figure 1). These 12 structures represented a total of 127 eligible competitive gymnasts. Among them, a total of 88 gymnasts (69.3%) completed the questionnaire and were thus included in the present study (Figure 1).
The participating gymnasts were between 9 and 23 years old ((mean ± SD) 14.1 ± 2.5 years) at the beginning of the 2020/2021 season (Table 1). The gymnasts practiced WAG for 9.7 ± 2.9 years (Table 1). The mean of number of training hours per week before the 2020/2021 season was 21.2 ± 6.6 h a week for a range between 11 and 35 h, and 22.0 ± 6.2 h a week during the season 2020/2021 (Table 1).

3.2. Performance

During the 2019–2020 season, 28 (31.8%) gymnasts had an international level, 51 (58%) a national level, 9 (10.2%) a regional level, and 0 (0%) a local level (Table 1). During the 2020–2021 season, 22 (25%) gymnasts had an international level, 60 (68.2%) a national level, 5 (5.7%) a regional level, and 1 (1.1%) a local level. Sixty-two (71.0%) participants participated to at least one competition (Table 1).

3.3. Social Life

Seventy-seven (87.5%) gymnasts had a school flexibility schedule. They spent on average 4.4 ± 1.4 h per day at school (Table 1). Three (3.4%) gymnasts were in primary school, 47 (53.4%) were in middle school, 32 (36.4%) were in high school, 4 (4.5%) were in university, and 2 (2.3%) were out of the school system (Table 1).
Most of the gymnasts lived with their parents (n = 47 (53.4%)), 16 (18.2%) lived with a hosting family, 17 (19.3%) lived in a boarding school, and 8 (9.1%) lived in their own home (Table 1). Gymnasts spent on average 49 ± 28 min per day in transports (e.g., car, bus, train, tramway) (Table 1).
Gymnasts were sedentary (sedentary times counted as soon as there were 30 min consecutives spent sitting or lying) on average 4.7 ± 1.9 h a day (Table 1).

3.4. Sleep

Gymnasts slept on average 8.2 ± 1.6 h per night (Table 1). Eighty-one (92.0%) gymnasts had morning fatigue, 52 (59.1%) had nightmares, and the same percentage presented nocturnal awakening (Table 1). Almost three-quarters of the gymnasts described difficulty falling asleep (73.9%) (Table 1).

3.5. Menstruation

Forty-two gymnasts (47.7%) had their menstrual cycle at the beginning of the season (Figure 2). The mean age of the first menstrual cycle was 14.1 ± 2.5 years old (between 10 and 18 years old) (Figure 2). At the end of the season, 44 gymnasts had their menstrual cycle (50.0%). Among these 44 gymnasts, 26 (29.5%) had regular cycles, 13 (14.8%) had irregular cycles, and 5 (5.7%) had an interruption of their menstrual cycle for more than 3 months.

3.6. Injuries during the 2020–2021 Season

Seventy-four (84.1%) gymnasts had an injury before the season 2020–2021. During the season 2020–2021, 62 (70.5%) participating gymnasts reported 95 injuries. The one-year injury prevalence was 70.5% (95% CI 60.9 to 80.0%) injury per year. Twenty-three (26.1%) gymnasts had two injuries, six (6.8%) had three injuries, two (2.3%) had four injuries, and two (2.3%) gymnasts had five or more injuries. Gymnasts had an average of 1.1 ± 1.0 injuries during the season. The number of gymnasts with and without injuries is presented according to the gymnasts’ age in Figure 3.
The most frequently reported injury locations were the knee (25.3%), the ankle (14.7%), and the foot (13.7%) (Table 2). The most frequently reported injury types were the ligament (26.3%) and the bone injuries (22.0%); it is also important to note that the type was not reported for 14 injuries (14.7%). Ankle sprains (11.6%), foot bone injuries (10.5%), and knee sprains (9.5%) were the most common injuries reported during the 2020/2021 gymnastics season.

3.7. Diseases

During the 2020/2021 season, 3 (3.4%) gymnasts reported having an upper respiratory tract infection, 13 (14.8%) had a gastro-intestinal disease, 32 (36.4%) had an episode of headache, and 21 (23.9%) had other types of disease during the 2020/2021 season (Table 1). Twenty (22.7%) gymnasts had to interrupt their training due to a disease (Table 1). Twenty-three gymnasts (26.1%) were infected with COVID-19 during the season, and 77 (87.5%) were vaccinated against COVID (Table 1). Two gymnasts (2.3%) had a chronic disease: asthma and diabetes (Table 1).

3.8. Mental Health

Eighty gymnasts (90.9%) described being stressed during the season 2020–2021 (Table 1): 53 gymnasts (60.2%) felt anxious and 50 (65.9%) felt sad; 70 gymnasts (79.5%) presented a low morale sometimes, often, or always; 53 gymnasts (60.2%) had apprehension to go to training; and 20 gymnasts (22.7%) reported being concerned about eating disorders (Table 1).

3.9. Nutrition

Thirty-four gymnasts (38.7%) were worried about their weight (Table 1). Fifteen gymnasts (17%) were asked by a staff member supporting the athlete training (e.g., coach, sports scientist, or medical team) to increase or decrease their weight (lose or gain weight) (Table 1). Fifty-six (63.6%) gymnasts declared snacking between meals (Table 1). Twenty-nine (33%) gymnasts took vitamin D supplements and nine (10.2%) took another vitamin supplementation (Table 1).

3.10. Injury risk Factors

Univariate analysis found that having an injury during the previous season (OR = 9.06; CI 95% 2.66 to 36.73; p = 0.0007) and using a prevention program (OR = 3.97; CI 95% 1.46 to 11.15; p = 0.007) were associated with an increased risk of sustaining an injury during the 2020/2021 season (Table 1).
In the multivariable analysis, having an injury during the previous season (OR = 10.87; CI 95% 2.60 to 59.50; p = 0.002), using a prevention program (OR = 3.74; CI 95% 1.13 to 12.86; p = 0.031) and having a disease (OR = 7.58; CI 95% 1.46 to 63.1; p = 0.032) were associated with an increased risk of sustaining an injury during the 2020/2021 season, while being asked to gain weight was associated with a reduced risk of sustaining an injury during the 2020/2021 season (OR = 0.04; 95% CI 0.00 to 0.61; 0.032) (Table 1).

4. Discussion

The main findings of the present study were that (1) in high-level/national-level women artistic gymnasts, the one-year injury prevalence was 70.5% (95% CI 60.9 to 80.0%), the most frequently reported injury location was the knee (25.3%) and injury type was the ligament (26.3%), and (2) having an injury during the previous season, using a prevention program, and having a disease were associated with an increased injury risk during the season, while were asked to gain weight being associated with a reduced injury risk.

4.1. Injury Prevalence

The one-year injury prevalence of 70.5% in the present study was lower than in previous studies [6,8]. Similarly, the number of injuries per gymnast during a season (1.1) was also lower than in the previous studies (2.5 in NCAA gymnasts [5] or 2.4 in elite and non-elite Australian gymnasts [7]). These differences between our study and previous studies could be explained by the difference in the population and the methodological differences (e.g., injury definition, data collection). Indeed, many studies define injury as “any gymnastics-related incident that resulted in the gymnast missing any portion of a practice or competitive event, beginning on the day of injury” [5,6,21], which corresponds to a time-loss injury definition [23]. However, many gymnasts are training with pain or injury (83%, according to Marini et al. [24]). Consequently, a time-loss injury definition could underestimate the extent of the injury problem in WAG. Therefore, we collected injuries that led to the adaptation of gymnastics in addition to the interruption of the gymnastics activity [21]. The recall bias could have also been responsible for the differences in values between the studies. Indeed, the questionnaire was sent 3 to 6 months after the end of the season 2020–2021. So, a gymnast could have forgotten minor injuries that may impact the injury prevalence. However, we think that our definition (i.e., “all discomfort or physical pain impacting the training during seven days or more (interruption or limitation of the practice)” [21]), targeting injuries that had a long-duration impact, could have decreased the risk of recall bias.

4.2. Injury Characteristics

The knee (25.3%) and the ankle (14.7%) were the locations most concerned by injuries in our present study (Table 1), in agreement with previously published results [4,6,7]. Caine et al. [6] found that the knee corresponds to 10.9% of all injuries and 12.0% for the ankle. Kolt et al. [7] reported that knee injuries represented 14.6% of all injuries and ankle injuries 31.8%. Kerr et al. [4] reported that knee injuries represented 10.3% of all injuries and ankle injuries 17.9%. The most common injury type was the ligament (26.3%), in agreement with previous results (20.3% [4], 29.6% [7], and 19% [5]). In our study, ankle sprains were the most common injury (11.6%), in agreement with previous studies [2,6]. These results regarding the injury location and type were consistent with the sport of gymnastics involving the lower limbs and with several rotations or pivots [1].

4.3. Injury Risk Factors

As Campbell et al. [2] described in their systematic review, we also reported that an injury during the previous season was associated with increased injury risk during the season. Previous studies [8,12,25] reported that injury prevalence increases with the number of hours of training, but in our study, we did not observe any association between injury and the training load. Marini et al. [24] reported that a preventive program could help reduce pain syndrome and injuries. However, our results showed that using a prevention program was associated with an increased injury risk. This can be explained by the fact that (i) the gymnasts who used a prevention program were already injured or trained despite the injury, (ii) the injury prevention program was inappropriate or not performed according to the prescribed instructions due to the lack of close supervision, and/or (iii) some confounding factors (e.g., training load) were not included in the analysis (i.e., multivariable analysis). The majority of gymnasts who followed a prevention program were in the national training centers (97.4% of national training center gymnasts followed a prevention program), and/or they had a higher number of hours of training. Readers should interpret these results with caution. We also recommend that coaches and athletes focus their attention on the current injury prevention program by managing their injuries closely and putting in effort to improve the rehabilitation program. We think that the epidemiological results and the injury prevalence should encourage developing and/or improving injury risk reduction programs specifically targeting high/national-level women artistic gymnasts.
Otherwise, our results confirmed that mental suffering is prevalent in gymnastics; 90.9% of participating gymnasts declared being stressed, and more than 50% described symptoms like sadness and anxiety. Consequently, it is essential to screen gymnasts for mental health and manage them appropriately, as well as to prevent mental health problems in WAG [16,18,19].

4.4. Strengths and Limitations

This is the first study to evaluate injuries and their related injury risk factors in France, and this study focused on almost all of the high-level/national-level WAG in the country (national training centers and TOP 12 clubs), with a high response rate to the questionnaire (69.3%). The questionnaire evaluated different fields through numerous questions, including two hot topics of mental health and nutrition.
As limitations, despite the high response rate from the gymnasts, 5 TOP 12 clubs did not provide us their list of gymnasts. So, we could not send the questionnaire to all of the targeted population. This study was a retrospective study and could suffer from recall bias. The self-reported questionnaire can also have been responsible for recall bias. The injury type was not reported for all injuries. For some questions (e.g., about sleep quality), the responses could have varied according to the interpretation of the participants. Some of the participants are young, and it is admitted that they might encounter some difficulty understanding the questions of the survey. The evaluation of mental health with an objective score could have been useful in order to quantify and compare the status between gymnasts suffering from mental symptoms and those who are not.

4.5. Perspectives and Practical Implications

The high injury rate and the potential negative consequences of these injuries support the need to continue improving knowledge on injuries, as well as to improve injury risk reduction measures and strategies in WAG. This is even more important in high-level and national-level WAG since the epidemiological knowledge in these populations is lower than in the population of NCAA gymnasts.
In addition, there were changes in the apparatus in the last decades to protect the gymnasts (e.g., softer and thicker mats, enlarging the horse for the vault, vault board protection for Yurchenkos’s vault, use of handguards on the uneven bars apparatus). However, these changes also allowed the gymnasts’ performance level to increase, consequently to increasing their injury risks. The gymnastics scoring system also encourages the gymnasts to take more and more risks, pushing human bounds. Floor apparatus seems to be the apparatus with the highest injury risk, followed by uneven bars apparatus [4,6], since during take-offs and landings gymnasts endure up to 17 times their bodyweight [1,4,6]. A cumulative exposure to these massive impacts could be responsible for overuse and acute injuries. Therefore, it would be of interest to better understand the injury epidemiology relative to apparatus in order to orient injury prevention approach.
Despite the association found between the use of a prevention program and higher injury risk, there is a need to include an injury prevention approach in WAG. Therefore, a better understanding of what is currently done on field setting and to co-construct with end-useres injury prevention programs seems like a relevant, if not fundamental, perspective.

5. Conclusions

In French WAG, about three quarters (70.5%) of high-level/national level gymnasts had at least one injury during a season. This result supports the need to improve the injury prevention approach in WAG through, for instance, a close collaboration between gymnasts, coaches, and medical staff. It seems even more critical since we found that having a previous injury could increase the risk of a new injury.

Supplementary Materials

The following supporting information can be downloaded at: https://www.mdpi.com/article/10.3390/app131910600/s1, Etude SantéGymRétro: Pratique de la gymnastique artistique féminine et santé durant la saison 2020/2021.

Author Contributions

S.C. and P.E. conceived the study; S.C. performed the data collection; S.C. performed the data extraction; S.C. and P.E. performed data analyses; S.C. and P.E. drafted the manuscript; and all co-authors contributed substantially to interpreting the results, provided important revisions, and approved the manuscript. All authors understand that they are accountable for all aspects of the work and ensure the accuracy or integrity of this manuscript. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

The present study was approved by the Saint-Etienne University Hospital Ethics Committee (IRB32N232016/CHUSTE).

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

Data are available upon reasonable request. Requests for data sharing from appropriate researchers and entities will be considered on a case-by-case basis. Interested parties should contact one of the authors, Séréna Charpy ([email protected]).

Acknowledgments

The authors would like to thank the France Gymnastics National Centre of Saint-Etienne (“Pôle France Gym de Saint-Etienne”; https://www.gymnastique-féminine.fr (accessed on 19 September 2023) for its help and support in this study and the native English speaker for her help in the manuscript.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Flow chart of the included population (“?” means that the total number of gymnasts is not known).
Figure 1. Flow chart of the included population (“?” means that the total number of gymnasts is not known).
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Figure 2. Number of gymnasts with and without their menstrual cycles at the beginning of the season per age.
Figure 2. Number of gymnasts with and without their menstrual cycles at the beginning of the season per age.
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Figure 3. Number of gymnasts with and without injuries per ages.
Figure 3. Number of gymnasts with and without injuries per ages.
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Table 1. Characteristics of the 88 participating gymnasts and univariate and multivariable analyses. For the univariate analysis, there is no model adjustment (each variable was analysed alone with the dependent variable). In the multivariable analysis, we kept only significant variables (p < 0.05) from the univariate analysis and they were all included in the model of the multivariable analysis.
Table 1. Characteristics of the 88 participating gymnasts and univariate and multivariable analyses. For the univariate analysis, there is no model adjustment (each variable was analysed alone with the dependent variable). In the multivariable analysis, we kept only significant variables (p < 0.05) from the univariate analysis and they were all included in the model of the multivariable analysis.
Risk FactorsMean
or n
SD or
%
Univariate AnalysisMultivariable Analysis
OR95% CIpOR95% CIp
DEMOGRAPHIC
Age14.12.50.990.82 to 1.190.891
GYMNASTICS ACTIVITY
BEFORE 2020/2021
Years of practice9.662.861.040.88 to 1.220.673
Hours of training before 2020/202121.206.571.000.94 to 1.080.934
Performance level during 2019–2020 season
Local00%---
Regional910.2%0.590.13 to 2.890.503
National5158.0%1.380.49 to 3.800.529
International2831.8%---
LIFESTYLE
School level
Primary school33.4%1.002.31 × 10−91 to
8.82 × 10+86
1.000
Secondary school4753.4%3.46 × 10+80.00 to NA0.997
High school3236.4%4.04 × 10+80.00 to NA0.997
College44.5%1.33 × 10+161.45 × 10−236 to NA0.996
Other22.3%1.001.37 × 10−98 to
3.77 × 10+89
1.000
School adaptation (i.e., flexible schedule)7787.5%1.430.35 to 5.230.598
Hours of school4.351.40.930.66 to 1.290.651
Time in transport per day (min)49.528.51.000.99 to 1.020.805
Sedentary per day (min)283.7112.41.000.99 to 1.010.261
Type of residence
Host family1618.2%5.21 × 10−7NA to 2.24 × 10+1220.992
Boarding school1719.3%2.48 × 10−7NA to 1.21 × 10+1220.992
Parents or family4753.4%4.41 × 10−7NA to 1.24 × 10+1220.992
Own residence89.1%5.21 × 10−7NA to 1.21 × 10+1220.992
SLEEP
Quantity (hours)8.241.081.280.83 to 1.980.262
Difficulty falling asleep
Never2326.1%---
Sometimes4551.3%0.620.18 to 1.910.417
Often1820.5%0.440.11 to 1.700.236
Always22.3%4.35 × 10+62.63 × 10−109 to NA0.993
Noctural awakening
Never3640.9%---
Sometimes4046.5%1.500.55 to 4.130.425
Often910.2%1.000.22 to 5.381.00
Always33.4%1.000.09 to 22.791.00
Nightmares
Never3640.9%---
Sometimes4652.3%1.250.47 to 3.300.655
Often66.8%0.440.07 to 2.700.358
Always00%---
Morning fatigue
Never78.0%---
Sometimes4753.4%0.940.12 to 4.980.948
Often2933.0%0.890.11 to 5.050.899
Always55.7%1.600.11 to 42.320.736
GYMNASTICS ACTIVITY
DURING 2020/2021
Hours of training22.06.201.030.96 to 1110.376
Competition participation6271%1.090.39 to 2.900.871
Number of competitions1.881.840.920.72 to 1.180.503
Performance level in 2020–2021
Local11.1%---
Regional55.7%8.64 × 10+63.27 × 10−122 to NA0.991
National6068.2%1.58 × 10+72.62 × 10−122 to NA0.991
International2225%1.23 × 10+7NA to 1.16 × 10+122
Prevention program6573.9%3.971.46 to 11.140.0073.741.13 to
12.86
0.031
PHYSICAL HEALTH
Chronic Disease1517.0%2.900.86 to 13.310.1167.581.46 to
63.1
0.032
Menstruations4247.7%1.710.68 to 4.450.262
Chronic disease22.3%0.410.16 to 10.630.533
Previous injury7484.1%9.062.66 to 36.730.000810.872.60 to
59.50
0.002
MENTAL HEALTH
Stress
Never89.1%---
Sometimes4955.7%1.500.28 to 6.990.610
Often1730.7%1.710.29 to 9.060.527
Always44.5%0.600.05 to 7.330.680
Anxiety
Never3539.8%---
Sometimes3135.2%1.500.52 to 4.480.456
Often2022.%2.090.60 to 8.530.267
Always22.3%3.33e-8NA to 1.11 × 10+1080.991
Sadness
Never3034.1%---
Sometimes5158.0%0.870.31 to 2.360.791
Often66.8%0.360.06 to 2.310.269
Always11.1%2.09 × 10+63.87 × 10−123 to NA0.992
Frustration
Never2831.8%---
Sometimes4247.8%0.940.30 to 2.790.911
Often1820.5%0.420.11 to 1.470.174
Always00%---
Disgust
Never6776.1%---
Sometimes1818.2%0.610.20 to 2.020.402
Often44.5%1.100.13 to
23.1
0.935
Always11%6.38 × 10−8NA to 3.90 × 10+1210.991
Low morale
Never1820.5%---
Sometimes5865.9%0.418.75e-2 to 1.430.198
Often1112.5%0.355.51e-2 to 1.990.238
Always11.1%1.51 × 10+63.05 × 10−123 to NA0.992-
Training apprehension
Never3539.8%---
Sometimes4348.9%1.350.51 to 3.570.544
Often78.0%3.130.459 to 62.730.973
Always33.4%1.040.91 to 23.800.973
Loss of pleasure
Never4551.1%---
Sometimes3236.4%1.280.48 to 3.530.627
Often910.2%4.000.64 to 77.70.210
Always22.3%0.500.02 to 13.230.632-
Eating disorders
Never6877.3%---
Sometimes1415.9%0.700.10 to 2.520.562
Often55.7%0.580.10 to 4.680.569
Always11.1%2.23 × 10+63.65 × 10−123 to NA0.991
Irritability
Never6877.3%---
Sometimes1415.9%0.990.36 to 2.850.990
Often55.7%0.280.05 to 1.440.127
Always11.1%2.18 × 10+63.68 × 10−123 to NA0.992
Feeling of inferiority
Never6877.3%---
Sometimes1415.9%0.900.03 to 2.590.867
Often55.7%0.450.01 to 1.820.250
Always11.1%5.87 × 10+61.18 × 10−109 to NA0.993
Feeling empty
Never6877.3%---
Sometimes1415.9%0.550.20 to 1.540.243
Often55.7%5.91 × 10+62.45 × 10−72 to NA0.991
Always11.1%5.91 × 10+62.80 × 10−206 to NA0.995
HEALTH STATUS
Infected with COVID2326.1%0.720.26 to 2.040.523
COVID vaccination7787.5%1.430.35 to 5.230.598
Having regular menstruation cycles
No menstrual cycle4450.0%---
Regular cycles2629.5%1.400.49 to 4.270.533
Irregular cycles1314.8%2.841.05 to 3.700.382
>3 months interruption55.7%0.780.12 to 6.370.793
NUTRITION
Snacking
Never3236.4%---
Sometimes4652.3%1.040.37 to 2.750.939
Often1011.4%1.820.37 to 13.510.496
Always11.1%---
Being worried about her weight
No5461.4%---
Yes, gain weight3236.4%1.790.67 to 5.170.261
Yes, lose weight22.3%0.500.019 to 13.130.631
Asked to change her weight
No7383.0%---
Asked to gain weight44.5%0.120.01 to 0.980.0710.040.00 to
0.61
0.032
Asked to lose weight1112.5%0.620.17 to 2.570.4770.410.09 to
1.95
0.240
OR: odds ratio; CI: confidence interval.
Table 2. Characteristics of the 95 injuries reported during the season 2020-2021 according to location and type (n (%)).
Table 2. Characteristics of the 95 injuries reported during the season 2020-2021 according to location and type (n (%)).
JointGrowthLigamentMuscleBoneTendonOtherNot DocumentedTotal
Trunk0 (0%)1 (1.1%)0 (0%)1 (1.1%)2 (2.1%)0 (0%)0 (0%)2 (2.1%)6 (6.3%)
Shoulder0 (0%)0 (0%)0 (0%)1 (1.1%)0 (0%)2 (2.1%)0 (0%)1 (1.1%)4 (4.2%)
Elbow0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0.0%)
Forearm0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)1 (1.1%)1 (1.1%)2 (2.1%)
Wrist2 (2.1%)1 (1.1%)0 (0%)0 (0%)1 (1.1%)0 (0%)1 (1.1%)1 (1.1%)6 (6.3%)
Finger0 (0%)0 (0%)2 (2.1%)0 (0%)2 (2.1%)0 (0%)0 (0%)0 (0%)4 (4.2%)
Hip/pelvis1 (1.1%)1 (1.1%)0 (0%)0 (0%)0 (0%)1 (1.1%)0 (0%)1 (1.1%)4 (4.2%)
Hamstring/Adductors0 (0%)0 (0%)1 (1.1%)3 (3.2%)0 (0%)0 (0%)0 (0%)1 (1.1%)5 (5.3%)
Knee5 (5.3%)6 (6.3%)9 (9.5%)0 (0%)1 (1.1%)1 (1.1%)0 (0%)2 (2.1%)24 (25.3%)
Calf0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)1 (1.1%)0 (0%)1 (1.1%)
Tibia0 (0%)0 (0%)0 (0%)0 (0%)3 (3.2%)0 (0%)0 (0%)2 (2,1%)5 (5.3%)
Ankle1 (1.1%)0 (0%)11 (11.6%)0 (0%)2 (2.1%)0 (0%)0 (0%)0 (0%)14 (14.7%)
Foot/Toe0 (0%)1 (1.1%)2 (2.1%)1 (1.1%)10 (10.5%)2 (2.1%)1 (1.1%)1 (1.1%)18 (18.9%)
Other0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)0 (0%)2 (2.1%)2 (2.1%)
Total9 (9.5%)10 (10.5%)25 (26.3%)6 (6.3%)21 (22.0%)6 (6.3%)4 (4.2%)14 (14.7%)95 (100%)
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Charpy, S.; Billard, P.; Dandrieux, P.-E.; Chapon, J.; Tondut, J.; Edouard, P. Injuries in French High-Level and National-Level Women Artistic Gymnastics: One-Year Prevalence and Associated Factors. Appl. Sci. 2023, 13, 10600. https://doi.org/10.3390/app131910600

AMA Style

Charpy S, Billard P, Dandrieux P-E, Chapon J, Tondut J, Edouard P. Injuries in French High-Level and National-Level Women Artistic Gymnastics: One-Year Prevalence and Associated Factors. Applied Sciences. 2023; 13(19):10600. https://doi.org/10.3390/app131910600

Chicago/Turabian Style

Charpy, Séréna, Pierre Billard, Pierre-Eddy Dandrieux, Joris Chapon, Jeanne Tondut, and Pascal Edouard. 2023. "Injuries in French High-Level and National-Level Women Artistic Gymnastics: One-Year Prevalence and Associated Factors" Applied Sciences 13, no. 19: 10600. https://doi.org/10.3390/app131910600

APA Style

Charpy, S., Billard, P., Dandrieux, P. -E., Chapon, J., Tondut, J., & Edouard, P. (2023). Injuries in French High-Level and National-Level Women Artistic Gymnastics: One-Year Prevalence and Associated Factors. Applied Sciences, 13(19), 10600. https://doi.org/10.3390/app131910600

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