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Rehabilitation and Reconditioning Overview • The Sports Medicine Team • Types of Injuries • Tissue Response to Injury • Exercise Strategies During Recovery • Case Study • Take Home Points Principles of Rehabilitation and Reconditioning • Healing tissues must not be overstressed • The individual must fulfill specific criteria to progress from one phase to another during the rehabilitative process • The rehabilitation program must be based on current clinical and scientific research Principles of Rehabilitation and Reconditioning • The program must be adaptable to each individual and his or her specific requirements and goals • Rehabilitation is a team-oriented process requiring all the members of the sports medicine team to work together The Sports Medicine Team • Physician • Athletic Trainer • Strength and Conditioning Coach/Personal Trainer • Physical Therapist • Nutritionist • Psychologist Duties of Sports Medicine Team • Physician – Calls the shots – Game and practice medical coverage – Injury evaluation and diagnosis – Referrals if necessary – Determine return to play • Certified Athletic Trainer – Day to day physical health of the athletes – Injury prevention, management and rehabilitation – Evaluate, not diagnosis, injuries Duties of Sports Medicine Team • Conditioning Coach/Personal Trainer –Injury prevention and rehabilitation –Invaluable resource for ATC and PT –Key in returning a player to the field –Certified through NSCA • Physical Therapists –Primarily clinically based –Longer term rehabilitation Duties of Sports Medicine Team • Nutritionist – Registered Dietician – Member of ADA • SCAN (Sports, Cardiovascular and Wellness Nutritionists) – Nutrition professionals with expertise and skills in promoting the role of nutrition in physical performance, cardiovascular health and wellness • Psychologist – Improve performance – Return from injury Types of Injuries • Macrotrauma • Microtrauma Macrotrauma • Injury suffered as result of a specific, sudden episode of overload to a given tissue • Types – Bone – Joint – Soft Tissue Compound Fracture dislocation of left ankle after falling 1m from ladder Source: ED, Royal North Shore Hospital Bone Macrotrauma • Fracture –A break in the bone or cartilage • Types –Stress or Hairline –Compound or Open –Simple or Closed –Avulsion –Compression Types of Bone Fractures • Stress Fracture or Hairline Fracture – A very fine crack in the bone • Compound Fracture or Open Fracture – A fracture in which the bone is sticking through the skin • Simple Fracture or Closed Fracture – The bone hasn't pierced the skin • Avulsion Fracture – Tendon or ligament pulls off a piece of the bone • Compression Fracture – Occurs when vertebrae in the spine are broken Types of Fractures Video • http://www.youtube.com/watch?v=7jp7eDYkVq 8&feature=related Joint Macrotrauma • Joint Dislocation – Complete displacement (joint surfaces are not in anatomical alignment) of the joint surfaces • Joint Subluxation – Partial displacement of the joint surfaces and may result in laxity or instability Shoulder Dislocation Dwayne Wade Shoulder Dislocation • http://www.youtube.com/watch?v=09ZZbJzeKU A Ligament Macrotrauma • Sprain: injury to the structures that connect the bones and help maintain joint stability • First Degree: partial tear of the ligament without increased joint stability • Second Degree: partial tear with minor instability • Third Degree: complete tear with full joint instability Muscle Macrotrauma • Muscle Strain: tear to the fibers of the muscle – First Degree : partial tear of individual fibers characterized by painful muscle activity – Second Degree: partial tear of muscle characterized by weak muscle activity – Third Degree: complete tear of the muscle fibers with painless muscle activity • A muscle contusion is an area of excess accumulation of blood and fluid in the tissues surrounding the injured muscle Microtrauma • The result of repeated, abnormal stress applied to a tissue without sufficient recovery time • Joint and soft tissue – Tendonitis – Bursitis – Muscle soreness Tendon Microtrauma • Tendonitis – Inflammation of the tendon – Most often due to excessive repetitive movement • Most common tendons affected – Rotator cuff, biceps, elbow, wrist, hip, knee (patellar tendon), and ankle (achilles tendon) • Symptoms – Swelling, pain and stiffness Bursa Microtrauma • Bursa – Fluid filled sac located between tendon and bone – Prevents friction – 160 in the body – Majority located in the shoulder, elbow, hip and knee Bursa Microtrauma • Bursitis – Inflammation of bursa due to continuous rubbing of tendon over bone – Most often due to excessive repetitive movement – Most common bursa affected are elbow, shoulder, hip, knee and ankle (calcaneus) • Symptoms – Swelling, tenderness and pain Muscle Microtrauma • Muscle Soreness – Acute • Build up of lactic acid, potassium and other fluids within the muscle causes pain by impeding circulation and stimulating pain receptors – Delayed Onset Muscle Soreness (DOMS) • Damaged muscle fibers stimulate pain receptors • Caused by eccentric muscle contraction Tissue Healing • Three phases of tissue healing: –Inflammation Phase –Repair Phase –Remodeling Phase Tissue Response to Injury Phase One: Inflammation • Normal reaction that is necessary to the healing process of the body, but excessive inflammation will delay recovery • 24-72 hrs after injury • Vasodilation • Pain, swelling, and redness • Decreased collagen synthesis • Bradykinin is released which dilates blood vessels, contracts non-vascular smooth muscle, and causes pain. • Phagocytosis: macrophages remove cellular debris Tissue Response to Injury Phase Two: Repair • Highlighted by the repair and regeneration of new tissue – Two to three days after injury up to eight weeks • Tissue repair is accomplished by either: – Regeneration (Replacement of tissue by the same tissue) • Dead and unviable tissue is removed • New capillaries are formed and collagen fibers are laid down – Collagen fibers are placed haphazardly, which can result in sub-optimal strength and athletic performance if not corrected – The formation of granulated tissue (scars) • Scars are made up of dense, inelastic, non-vascular fibrous tissue Tissue Response to Injury Phase Three: Remodeling • Overlaps with Repair phase • Strengthening of the new, weak tissue – Production of new collagen fibers slows – Collagen tissue begins to hypertrophy and align with the lines of force – Strength of new collagen tissue continue for up to two years postinjury • Ligamentous tissue can take up to one year to completely remodel Exercise Strategies/Approaches • Inflammation Stage – Exercise is not recommended – Tissue needs time to heal – P.R.I.C.E. Principle should be used for the first 4872 hours immediately following the injury. The goal is to reduce swelling, prevent further injury, and reduce pain • Protection • Rest • Ice • Compression • Elevation • Ultrasound • Electrical Stimulation Exercise Strategies/Approaches • Repair Stage – If possible, implement exercises to maintain cardiovascular conditioning (stationary bike, upper body ergometer) and muscular strength (isometric contractions) • Remodeling Stage – Game on – Sports specific exercises – Proprioception work (balance exercises) – Isotonic strength training (closed vs. open chained), agility training, etc Case Study • Shannon Sharpe, Denver Broncos • Posterior Elbow Dislocation • Injury occurred 11-11 • Non-surgical rehab • Back to practice 11-27 (16 days) • Back to game 12-8 (27 days) MRI Results • Disruption of the anterior capsule with 2-3cm defect of distal brachialis with extensive hemorrhage and fluid • Tearing/stripping of the anterior bundle of the medial collateral ligament complex, distally greater than proximal • High grade partial tearing of the common flexor tendon at medial epicondyle and hemorrhage within the flexor pronator musle mass • Large joint effusion with multiple internal bodies Rehabilitation Protocol Phase 1: Inflammation • Goals – Minimize inflammatory response – Protect injury • Program Components – Hinged Brace/Compression – NSAIDS – Ice and Elevation – Electrical Stimulation Rehabilitation Protocol Phase Two: Repair • Goals – Speed up tissue repair – Limit loss of range of motion (ROM) • Program Components – Passive ROM (Day 2) – Soft tissue massage (Day 4) – Active ROM (Day 5) – Stretching (Day 5) – Myofascial release (Day 5) – Hydro therapy (Day 6) Rehabilitation Protocol Phase Three: Remodeling • Goals –Return to play • Program Components (Strength) –Manual resistance wrist, biceps/triceps (Day 7) –Manual resistance shoulder (Day 9) –Sport cord biceps/triceps wrist (Day 10) Rehabilitation Protocol Phase Three: Remodeling • Sport cord shoulder (Day 12) • Weight room biceps/triceps (Day 12) • Weight room upper body modified (19 Days) – (Ball stabilization for core/lower extremity-Day 5) Rehabilitation Protocol • Program Components (Strength and Proprioception) – Closed chain seated/standing (Day 8-10) – Closed chain quad/tripod (Days 11-15) – Closed chain uneven surface (Day 14) Rehabilitation Protocol • Program Components (Sports Specific) – Catching (Day 10) – Stance (Day 12) – Running (Day 12) – Blocking (Day 12) Take Home Points • The point person for the sports medicine team is generally a physician • Injuries occur as the result of either macro or microtrauma • The three phases of tissue healing are – Inflammation – Repair – Remodeling • Closed chain exercises (push-up, squat, split squat…) tend to be more sportsspecific than open chain