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Adaptive Sports Medicine in the Para-Athlete

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Adaptive Sports Medicine in the Para-Athlete Adaptive Sports Medicine in the Para-Athlete Mark Fisher MD, FAAPMR Director, Adaptive Sports Medicine Clinic Division of Pediatric Rehabilitation Children’s Mercy Hospital – Kansas City Assistant Professor of Pediatrics | UMKC School of Medicine Objectives • Define Adaptive Sports Medicine and the Paralympic movement • Describe the pre-participation exam for the para-athlete • Review the benefits of physical activity and sport for individuals with disability • Review common medical considerations of physical activity in those with congenital and acquired disability No financial disclosures Adaptive Sports Movement • 1888: founding of the Sports Club for the Deaf in Berlin • 1948: Sir Ludwig Guttmann organised a sports competition involving World War II veterans with a spinal cord-related injury in Stoke Mandeville, England (16 athletes) • 1952: Stoke Mandeville Games became international (126 athletes in 4 sports) and the Paralympic Movement was born • 1989: International Paralympic Committee (IPC) formed • 2001: “One bid, one city” model with Olympic Games • 2019: renamed “United States Olympic and Paralympic Committee” Disability ≠ Inability • Running • Volleyball • Cycling • Water Sports • Golf • Sled Hockey • Wheelchair • Alpine Skiing/Snowboarding ➢ Basketball • Throwing sports ➢ Rugby ➢ Discuss, Javelin, Shot put, ➢ Football Boccia ➢ Power Soccer • Shooting Sports ➢ Softball ➢ Archery, air rifle, trapshooting ➢ Sport Dance ➢ Fencing • Weight Lifting ➢ Curling • Combat Sports ➢ Tennis and Table tennis ➢ Judo, boxing, wrestling, MMA • Extreme Sports • Rock Climbing Adaptive Sports Medicine • Prevention, diagnosis, and management of disability-related health complications that occurs with sports and physical activity participation ➢Clinical service delivery ➢Scholarly discipline ➢Advocacy Benefit of Adaptive Activities/Sport • Improves metabolic profile: body fat, lean muscle, blood pressure, heart rate, lipid profile, bone density ➢ Fuchs 2001, Hernalahti 2004, Kelly 2004, Macdonald 2007, Kaufman 2007 • Mental Health and Quality of Life: Improves self-esteem, self-perceived quality of life, self-efficacy, body image, empowerment, social integration, school performance, motivation for continued involvement, reduces depression and detrimental effects of disability on mental health ➢ Sherrill 1990, Campbell 1994, Paciorek 1994, Martin 1999, Wetterhahn 2002, Yazicioglu 2007, Tasiemski 2005, Sporner 2009, Muraki 2000, Geacobbi 2008, Groff 2009, Zwinkles 2015, Côté-Leclerc 2017, Zwinkles 2018 • Improves physical profile across wide range of disabilities: strength, endurance, flexibility, gait efficiency, gait mechanics, wheelchair propulsion ➢ Damiano 1995, MacPhail 1995, Damiano 1998, Anderson 2001, Liusuwan 2007, Houghton 2012, Jansen 2013, Oliveira 2014, Rowland 2015, Lewelt 2015, Zwinkles 2013, Ross 2017 • Participation improves likelihood of employment in working age ➢ Sports and Employment among Americans with Disabilities, US Department of Labor 2009 Special Considerations in the Adaptive Athlete Pre-Participation Exam Impact of History: Current Function: Impairment: Pre-disability function Present level of training Sensory deficits Prior sports participation Motor deficits Assistance for ADLs Prior injuries Joint stability/Range of motion Equipment Used Onset of impairment Temperature intolerance Current medications and Nutritional history supplements Skin integrity Common Medications AEDs Predispose to low bone mineral density, increase tissue laxity Anticholinergics Worsen heat related illness Neuro-stimulants Increase the risk for arrhythmia or heat exhaustion Orthostatic Hypotension Likely need therapeutic use exemption Spasticity management Can effect classification Special Medical Considerations in the Adaptive Athlete • Autonomic Dysreflexia • Entrapment Neuropathy ➢ Unregulated sympathetic outflow due to spinal cord injury at or above T6 • Limb deficiency ➢ Skin • Thermoregulation ➢ Neuroma/MSK pain ➢ Hypo and hyperthermia ➢ Terminal overgrowth • Dermatologic • Altered nutrition requirements and relative energy availability • Cardiovascular • High prevalence of decreased bone ➢ Congenital heart defects density ➢ Orthostatic hypotension ➢ Requires screening before participation in contact sports • Motor Control/Joint laxity ➢ Injury • Atlantoaxial instability ➢ Overuse syndromes ➢ Muscle strains • Pediatric: immature skeletal system, growth Athlete/Technology Interface • Transtibial/transfemoral running prostheses • Adaptive cycling prostheses • Adaptive golfing prosthesis • Standing/seated alpine or cross country skiing equipment • Snowboarding prostheses • Swimming prostheses • Kayaking terminal devices • Terminal rock pick and suspension systems for rock climbing Wheelchair Mechanics Anterior deltoid Pec major Infraspinatus Serratus anterior Biceps Push Recovery Mid/posterior deltoid Supraspinatus Subscapularis Mid trapezius Triceps Injury Rates • SCI athletes had a significantly • Summer Paralympics Games higher prevalence of fractures 2012 -17.8 injuries/100 athletes compared with other athletes (Willick 2013) (Patatoukas 2011) • Summer Olympic Games 2012 - • Injury rate of 9.3 injuries per 12.9 injuries/100 athletes 1000 elite athlete-exposures (AE) (Engebretsen 2013) ➢ American football 10.1 to 15/1000 AE ➢ Soccer 9.8/1000 AE • In elite adaptive athletes ➢ Basketball 7.0/1000 AE (Ferrara training/overuse injuries account 2000) for >50% of injuries • Common acute injuries: Sprains (32%), fractures (21%), and strains and lacerations (14%) Biomechanics of Injury • Lack entirety of kinetic chain • Posture: ➢ Greater eccentric loads ➢ Posterior pelvic tilt, increased kyphosis, ➢ Bat, club, and racket sports protracted neck ➢ 59% of shoulder pain is referred from cervical pathology • Wheelchair: shoulder becomes the weight bearing joint of the body ➢ Tendency to internally rotate due to pull of pectoralis ➢ Protracted scapula due to scapular dyskinesia ➢ 300% increase in vertical force ➢ Superior translation of the humeral head decreases subacromial space ➢ Overhead sports are additive risk Case Discussion: • 20yo former elite athlete with T7 ASIA A spinal cord injury ➢ Wants to start playing WC tennis ➢ Mild right shoulder pain after activity • Resistance Training 3x/week ➢ UE mostly consisting of biceps, deltoid, triceps, chest ➢ Does 3-4 sets of 10-12 reps • Aerobic: Using hand cycle - forward rotation • FES bike at home 3-4x per week • MSK Exam: Full upper ROM, tenderness in upper trapezius, rhomboids but no trigger points noted; + scapular dyskinesis with R>L protraction at rest; + scapular slide, mildly positive Hawkins on right, otherwise negative Hawkins on left, neg Neer’s and O’briens b/l, fairly good pec flexibility bilaterally Scapular Dyskinesis, Cuff Impingement and Shoulder Preservation • Discussed reverse propulsion and postural factors. Recommended: • Reverse exercise on the cycle ergometer • Two for Cuff/External rotation: Seated Cross Body, Prone T → Resisted Prone T, Pull Aparts, Resisted Full Can • At least one row exercise: High to Low Rows, High banded row, Bent Over Row • Use in the rotation: Forearm Pushups/Forearm Plank, IYTs Circuit, Serratus Punch Rounding Out Upper Body Routine: • Skull Crusher • Cable Pull Downs • Dumbbell Press (laying down) • Seated Military Press • Bicep Curl Resources • Children’s Mercy - Adaptive Sports Medicine • Kansas City Clinic ➢ www.as-gkc.net • Move United ➢ Midwest Ability Summit • www.committoinclusion.org ➢ Midwest Adaptive Sports • Special Olympics ➢ The Whole Person • United States Association of Blind Athletes ➢ YMCA Clubs – Challenger Sports ➢ Disabled But Not Really ➢ Iron Adaptive ➢ Miracle League ➢ VarietyKC References • Akbar M, Brunner M, Ewerbeck V, Wiedenhofer B, Grieser T, Bruckner T, and Practice. Fifth Edition. Lippincott, Williams, And Wilkins. 2010. et al. Do overhead sports increase risk for rotator cuff tears in wheelchair users? Arch Phys Med Rehabil. 2015;96:484–488. • De Luigi AJ. Adaptive Sports Medicine: A clinical guide. Springer International Publishing. 2018. • Baxter-Jones A, Maffulli N, Helms P. Low injury rates in elite athletes. Arch Dis Child. 1993;68:130–132. • De Groot S, Bos F, Koopman J, Hoekstra AE, Vegter RJK. Effect of holding a racket on propulsion technique of wheelchair tennis • Birrer R. The Special Olympics athlete: evaluation and clearance for players. Scandinavian Journal of Medicine and Science in Sports. 2016 participation. Clin Pediatr (Phila). 2004:43(9):777-82. • Emery C. A., Cassidy J. D., Klassen T. P., Rosychuk R. J., Rowe B. H. • Campbell E, Jones G. Psychological well-being in wheelchair sport Effectiveness of a home-based balance-training program in reducing participants and nonparticipants. Adapt Phys Activ Q 1994;11:404- 415. sports-related injuries among healthy adolescents: a cluster randomized controlled trial. CMAJ. 2005;172(6):749–754 • Clarsen B, Myklebust G, Bahr R. Development and validation of a new method for the registration of overuse injuries in sports injury • Fagher K, Lexell J. Sports-related injuries in athletes with disabilities. epidemiology: the Oslo Sports Trauma Research Centre (OSTRC) Scand J Med Sci Sports. 2014 Oct;24(5):e320-31. doi: overuse injury questionnaire. Br J Sports Med. 2013 May;47(8):495-502. 10.1111/sms.12175. Epub 2014 Jan 15. doi: 10.1136/bjsports-2012-091524. Epub 2012 Oct 4. • Ferrara MS, Peterson CL. Injuries to athletes with disabilities: identifying • Comstock D, Collins CL, McIlvain NM. Summary report, National High injury patterns. Sports
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