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 Types Fracture A break in the bone or cartilage 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=7jp7eDYkVq8&feature=related
Joint Macrotrauma Joint Dislocation Joint Subluxation 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=09ZZbJzeKUA
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 Most common tendons affected Symptoms 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
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 post-injury 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 48-72 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 sports-specific than open chain