Musculoskeletal Practices for the Preparticipation Physical Examination

doi:10.21203/rs.3.rs-210629/v1

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Musculoskeletal Practices for the Preparticipation Physical Examination

https://doi.org/10.21203/rs.3.rs-210629/v1

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Background

Little is known about the musculoskeletal (MSK) exam providers use during the preparticipation physical exam (PPE). The primary aims of this study were to determine current practice with regards to the MSK screening exam, if goals are being met, and if there may be opportunities for improvement.

Results

The study had a total of 616 participants with a response rate of 9%. The majority of respondents (82%) were familiar with the 4th Edition PPE Monograph and 80% either moderately or strongly agreed that they use this as a guideline for their MSK screening exam. The 90 second MSK screening test was implemented by 52% of the participants and 13% reported no knowledge of this test. The majority of participants use an orthopedic exam as part of their PPE (82%). 92% of participants felt satisfied that their MSK exam would screen for current injury, while only 42% were satisfied that it effectively screened for future injury. 86% of participants agree that the MSK exam should be performed, while 26% said that they don't perform a physical exam at all. Educationally, 51% received training for the MSK PPE in residency, and 62% had training in fellowship.

Conclusions

Most participants believe that the MSK exam should be performed and that it effectively screens for current injuries, but there is variability as to what tests are being utilized despite the majority being familiar with the PPE Monograph. Most providers do not believe that the MSK PPE adequately screens for future injury; an overriding goal of the PPE. Residency or fellowship programs appear to be venues that education may be instituted.

Sports Medicine and Kinesiology

Orthopedics

Musculoskeletal (MSK)

Preparticipation Physical Exam (PPE)

injury prevention

MSK screening exam

High school athletes suffer an estimated 2 million injuries and require 500,000 doctor visits and 30,000 hospitalizations annually.¹ The High School Sports-Related Injury Surveillance Study showed that ankle and knee injuries were two of the most common high school sports-related injuries, accounting for nearly 30% of all high school sports-related injuries in the 2014-15 school year.² Longer-term consequences of sports injuries include predisposition to recurring injuries, earlier sports termination/dropout, and potentially compromised physical and psychological health.³

The current standard of care for screening athletes at risk for injury and illness is the pre-participation evaluation (PPE), but there has been no conclusive evidence that supports the effectiveness of the musculoskeletal (MSK) PPE to accurately identify or prevent at risk populations from injury.⁴ Despite not having a validated screening exam the musculoskeletal portion of the PPE, mostly through the history and review of systems form, has been found to be the most common cause of disqualification for athletes.⁵

The primary goal of the Pre-participation Physical Examination as described in the 4th Edition PPE Monograph, which was used at the time of this study, is to (1) screen for conditions that may be life-threatening or disabling, and (2) screen for conditions that may predispose individuals to injury or illness.⁶ Currently, there is no standardization for healthcare providers on how the PPE is completed, and there are questions surrounding the effectiveness of the PPE in meeting its objectives to properly screen athletes. In a study completed in 2014, it was found that healthcare providers overall were unaware of the PPE screening guidelines, and that knowledge of the Fourth Edition PPE Monograph led to increased satisfaction with the PPE as a screening tool.⁷

Effective screening tests must satisfy 2 requirements as described by the US Preventive Services Task Force: (1) the test must be able to detect abnormalities earlier than without screening and (2) the screening must be accurate.⁸ Due to the need to understand more completely how to better screen athletes for MSK injury we designed a survey to gain information from physicians performing PPE’s. Our aims were to understand current physician practices in regard to the MSK screening exam, if physicians who perform PPEs feel the current goals of the PPE are being met, and if there may be opportunities for education in teaching of the MSK screening examination. Our hypothesis is that over 50% of providers are not aware of the 4th Edition PPE monograph, that the goals of the PPE are not being met, and that there is variability in how the MSK screen is performed amongst providers.

Following institutional review board approval, members from the American Academy of Family Physicians (AAFP) and the American Medical Society for Sports Medicine (AMSSM) were recruited for the study. Inclusion criteria included current practicing physicians in primary care, primary care sports medicine, and sports orthopedics that perform pre-participation physical examinations as part of his/her practice. Exclusion criteria included providers who are not currently practicing, and individuals that do not perform the PPE as part of their practice.

The study utilized a cross-sectional survey-based REDCap instrument for data collection. 3,000 members of the AAFP were mailed postcards that contained a link and scannable QR code for participants to access the survey and 3,871 members of the AMSSM were sent an email that was generated through the organization on two occasions, one month apart, containing a link to the survey.

The survey contained a total of 24 questions and was separated into two main sections: a series of questions regarding the demographics of each participant followed by questions pertaining to participants’ MSK screening practices for the PPE. Demographic questions investigated the number of years of clinical practice, specialty of provider, location of practice, and level of athlete (middle school through professional) typically seen. The MSK screening questions involved a variety of Likert scale, multiple select, and yes/no questions exploring providers’ satisfaction that their screen is appropriate for current or future injury, knowledge of the 4^th Edition PPE Monograph, what physical exam tests are commonly performed in the PPE, thoughts on the value of the MSK screening exam, and if the PPE is adjusted based on athlete level. Additionally, information regarding the number of PPEs performed per year, most common age group of athletes screened, and facilities in which the PPEs are being performed in was collected. Prior to administration, the survey was reviewed for accuracy by 3 board certified sports medicine physicians (two primary care and one orthopedic), 2 family practice physicians, and 1 certified athletic trainer who were not involved in the creation of the questionnaire. Descriptive statistics were used in the analysis of the data.

A total of 616 out of 6871 participants (9%) responded to the survey. The majority of participants, 72%, were family medicine physicians with the remaining 28% being composed of orthopedic, internal medicine, emergency medicine, pediatric, and physical medicine and rehabilitation physicians. Participants practiced across 46 states collectively. Variability in the MSK screening exam is depicted in Figure 1. The 90 second MSK screening test was implemented by 52% of the participants, the most common among physicians. The majority of participants who perform a MSK exam use an orthopedic exam as part of their PPE (82%). 26% of participants reported that they do not perform a physical exam at all as part of their MSK screening examination, while 86% of participants agree that the MSK exam should be performed. 92% of participants felt satisfied that their MSK examination would screen for current injury, while only 42% were satisfied that it effectively screened for future injury. One of the main barriers to performing portions of the MSK screen was time (46%), while 22% reported lack of evidence for the exam as their reason.

Educationally, 51% received training for the MSK PPE in residency, and 62% had training in fellowship. The majority of respondents (82%) were familiar with the 4^th Edition PPE Monograph and 80% either moderately or strongly agreed that they use this as a guideline for their MSK screening exam. 13% reported no knowledge of the 90 second MSK screening test that is included in the 4^th Edition PPE Monograph. These results are summarized in Table 1.

There are a variety of approaches that are used for the MSK screening examination during the PPE. Most participants believe that the MSK exam should be performed and that it effectively screens for current injuries, but the majority of providers do not believe that the MSK exam adequately screens for future injury; an overriding goal of the PPE.⁶ This data confirmed our perception that the MSK screen does not screen for future injury and that providers do not believe in the predictive ability of the screen. To that end almost a third of respondents reported that they do not perform a physical exam at all. This perception is also in agreement with literature investigating the effectiveness of the MSK PPE, which shows there has been no convincing evidence that the MSK PPE is effective at accurately identifying or preventing at risk athletes from injury.^4,9,10

Most participants were aware of the 4^th Edition PPE Monograph and reported that they primarily use it as their guideline, contradictory to our hypothesis. Even with participants reporting using the monograph as their guideline for the MSK screen, there is still a lot of variability in how the screen is being performed, with half of the participants using the 90 second MSK screening test, 14% using the Functional Movement Screen (FMS), and close to a third not using a physical exam at all for the screen. Approximately 46% of participants reported lack of time as a barrier to performing some portions of the MSK PPE, providing some explanation as to why this variability may exist. Another explanation for the inconsistency could be due to educational differences amongst providers as there was variability in where providers were taught the MSK exam. 51% of respondents received training for the MSK PPE in residency and 62% in fellowship programs, which highlights that standardization in curriculums could improve the quality of MSK screenings provided.

Our findings support a lack of understanding of the PPE monograph given the wide variability in MSK screening exam techniques used while being aware of the PPE guidelines. This calls attention to the need for continued standardization of the MSK screening exam, as well as further research to validate objective screening exams for the prevention of MSK injury. Screening exams should be explored to look at the relationships between screening tests and risk factors in relevant populations to determine what tests are appropriate and effective in identifying high-risk populations.⁹ A recent study by Teyhen et. al. was able to show in a military population that the sum of a number of risk factors was able to produce a highly sensitive model for identifying those at risk for MSK injury.¹¹ This highlights that future MSK screenings should not focus on a single screen, but that a multivariate model with multiple risk factors could successfully identify a high-risk population. Injury prevention programs have shown to be effective in reducing injuries in athletes across a range of sports.^12,13,14 Identifying the high-risk population would provide an opportunity to direct limited prevention resources to the most at-risk individuals with the ultimate goal to reduce overall injury risk.

There are several limitations to our study. Our survey was the first that we are aware of that looked to gain provider insight to the MSK exam. As with any questionnaire-based research study, limitations regarding validation of the instrument used is of paramount concern. Validation of a questionnaire requires a process to determine construct, criterion, and content validity, amongst others. We addressed content validity through independent review of the questionnaire by 3 sports medicine physicians (two primary care and one orthopedic), 2 family medicine physicians, and 1 certified athletic trainer not involved in the creation of the questionnaire. Because there are no other instruments available to assess similar information, we were unable to assess criterion validity. Given the sample design of the questionnaire, we did not believe that it was necessary to assess construct validity.¹⁵ The study was also limited due to a low response rate of 9%, however, other web-based survey studies targeting members of the AMSSM had similar response rates.^16,17,18 Additionally, it is important to note that the response rate is slighter higher than 9% due to crossover of providers being active members of both the AAFP and AMSSM. The low response rate from providers specializing in fields other than family medicine did not allow for further analysis across specialties.

This study provides evidence for variability in MSK screening practices. It also highlights physician concerns that the goals of the PPE are not being met with the MSK screening. Finally, there may be a need to improve educational efforts in residencies and fellowships. Future steps include creation of a validated MSK screening model, similar to other primary prevention screening models (CAD, Colon cancer, etc.), that accomplishes the goals of the MSK portion of the PPE, which can then be implemented to be a standard part of the PPE exam.

MSK (musculoskeletal), PPE (preparticipation physical exam), AAFP (American Academy of Family Physicians), AMSSM (American Medical Society for Sports Medicine), FMS (Functional Movement Screen).

Ethics approval and consent to participate – Not applicable

Consent for publication – Not applicable

Availability of data and material – The datasets generated and/or analyzed during the current study are available in the REDCap repository and available from the corresponding author on reasonable request.

Competing interests – The authors declare that they have no competing interests.

Funding – Funding was provided by the Department of Family and Community Medicine at Penn State Milton S. Hershey Medical Center to support distribution of postcards for participant recruitment.

Authors’ contributions – CC was involved in the development of the IRB and data collection instrument, data analysis and interpretation, and manuscript preparation. CO oversaw all aspects of the study, including study design, data analysis and interpretation, and manuscript preparation. MS, JM, and RG each contributed to study design and manuscript preparation. All authors read and approved the final manuscript.

Acknowledgements - Thank you to Alan Adelman, Amanda Taylor Gehman, and Jessica Wright for your support in the development of the study protocol, administrative support, and financial support of this study. Thank you also to our statistician Erik Lehman for providing support in the data analysis of this study.

Authors’ information – MS is a board-certified Primary Care Sports Medicine physician, serves as the Division Chief of Primary Care Sports Medicine at Penn State Milton S. Hershey Medical Center, and is the team physician for the Hershey Bears Hockey Club and Hershey High School. JM serves as Director and Assistant Professor of Athletic Training at Lebanon Valley College. RG is a board-certified Orthopedic Sports Medicine physician and serves as the medical director for the Harrisburg Senators baseball team. CO is a Certified Athletic Trainer and board-certified Primary Care Sports Medicine Physician, and serves as the team physician for the Hershey Bears Hockey Club and Lebanon Valley College.

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Table 1. Participant Demographics and PPE Experience Data

Total providers contacted

6871

Total responses

616*

Practice location (n = 496)

Rural

Suburban

Urban

56 (11.29%)

263 (53.02%)

177 (35.69%)

Years practicing (n = 497)

1-5

6-10

11-15

15-20

>20

184 (37.02%)

96 (19.32%)

65 (13.08%)

54 (10.87%)

98 (19.72%)

Primary Practice Setting (n = 616)

Outpatient Primary Care

General Orthopedics

Sports Orthopedics

Primary Care Sports Medicine

Pediatrics

Other

147 (23.86%)

17 (2.76%)

78 (12.66%)

314 (50.97%)

8 (1.30%)

36 (5.84%)

Residency Completed (n = 504)

Family Medicine

Internal Medicine

Orthopedic Surgery

Emergency Medicine

Pediatrics

Physical Medicine and Rehabilitation

Other

360 (71.43%)

30 (5.95%)

1 (0.20%)

18 (3.57%)

47 (9.33%)

35 (6.94%)

13 (2.58%)

Sports Medicine Fellowship Training (n = 496)

Yes

439 (88.51%)

57 (11.49%)

Team Physician (n = 495)

Yes

393 (79.39%)

102 (20.61%)

Level of Sport Covered (n = 616)

High School

Club

College

Professional

National Team

Other (Dance, military, semi-pro, roller derby, endurance events)

283 (45.94%)

75 (12.18%)

273 (44.32%)

122 (19.81%)

51 (8.28%)

12 (1.95%)

Training for PPE (n = 616)

Medical School

Residency

Fellowship

Continuing Medical Education

PPE Literature

Other (undergraduate education, experience, colleagues)

139 (22.56%)

314 (50.97%)

380 (61.69%)

123 (19.97%)

174 (28.25%)

9 (1.46%)

Familiarization of 4^th Edition PPE Monograph (n = 466)

Yes

383 (82.19%)

83 (17.81%)

Use of PPE Monograph as guideline (n = 382)

Disagree Strongly

Disagree Moderately

Disagree Slightly

Agree Slightly

Agree Moderately

Agree Strongly

4 (1.05%)

8 (2.09%)

13 (3.40%)

50 (13.09%)

180 (47.12%)

127 (33.25%)

Satisfied with MSK screening exam for CURRENT injury (n = 466)

Yes

431 (92.49%)

35 (7.51%)

Satisfied with MSK screening exam for FUTURE injury (n = 466)

Yes

194 (41.63%)

272 (58.37%)

Location where PPE is performed most commonly (n = 616)

Normal office patient encounter

On-field with team

Gymnasium

Physical Therapy Clinic

Athletic Training Room

Other

370 (60.06%)

16 (2.60%)

201 (32.63%)

18 (2.92%)

264 (42.86%)

43 (6.98%)

Age groups most commonly assessed (years) (n = 466)

<12

13-18

18-25

>25

5 (1.07%)

258 (55.36%)

198 (42.49%)

5 (1.07%)

Number of PPE performed yearly (n = 466)

0-25

26-50

51-75

76-100

>100

63 (13.52%)

77 (16.52%)

68 (14.59%)

54 (11.59%)

204 (43.78%)

Table 1. Details the demographic data of respondents in the study as well as prior experiences and opinions in regards to the PPE.

*Total responses may not equal total number of participants due to missing data.

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Musculoskeletal Practices for the Preparticipation Physical Examination

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