FUNDAMENTALS OF SPORT AND EXERCISE MEDICINE
Sports medicine includes:
Injury prevention
Diagnosis
Treatment
Rehabilitation
Warm up/cool down
Recovery techniques
Flexibility/stretching
strength/power/endurance
Appropriate training techniques
Protective gear/footwear
taping/bracing
Musculoskeletal screening
When an athlete sustains an injury, making an accurate diagnosis ASAP is important because:
The injured structure can be placed in an optimum healing environment
An appropriate rehabilitation program can be commenced or referred to an appropriate clinician for further treatment
Prevention of disuse atrophy
Maintain muscle/joint ROM
Gives the athlete/team an idea of timeframes/expectations for rehab/RTP
Accurate history taking is the most crucial component to making an accurate diagnosis
Awareness of red flags
Strong anatomy knowledge
Clinician aware of professional limits- when to refer
Can include:
RICER
HARM
POLICE
TOTAPS
PEACE and LOVE
Stretching and strengthening
Proprioception and joint mobilisations
Orthopaedic intervention
Medication and massage
Taping and bandaging
Functional progressions e.g. plyometrics
Clinician must:
Make an accurate diagnosis
Have a sound knowledge of anatomy
Be able to justify the treatment choice with current evidence-based treatment.
Often the first point of contact after an on field injury is sustained
Not their responsibility to completely diagnose the injury
Important to be aware of potential provisional diagnoses
Need to apply appropriate first aid until an accurate diagnosis can be made by the team doctor/physiotherapist
Responsibilities:
Keep accurate records of injuries and the rehab process
Cooperation between athlete, coach, trainer and clinician is vital to maximize performance and health
Regular communications with all practitioners involved in rehab
Awareness of limitations and capabilities with respect to training/qualifications, medico-legal insurance and ethics.
Life threatening injuries
Medical emergency
Emergency services must be contacted immediately
Includes spinal, hear, stroke, head injuries
Musculoskeletal injuries
Hematoma
Contusion
Fractures
Dislocation
Subluxation
Sprain
strain/tear
Bursitis
Neuropraxia
Stress fractures
tendinopathy
Specific injuries
Abrasion
Blisters
Lacerations
Chafing
Cramp
Fainting
Heat exhaustion
Nose bleed
Factors likely to contribute to type and extent of injury |
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Bone |
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Acute:
Fracture
Periosteal contusion
Overuse:
Stress fracture
boene strain
Osteitis
Periostitis
Apophysitis
Articular cartilage |
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Acute
osteochondral/chondral fractures
Chondral Lesions:
Grade 0: normal cartilage
Grade 1: cartilage with softening and swelling
Grade 2: partial thickness defect with fissures on the surface that do not reach the subchondral bone or <1.5cm in diameter
Grade 3: fissuring to the level of the subchondral bone in an area with a diameter >1.5cm
Grade 4: exposed subchondral cone
Joint |
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Acute:
Dislocation
Subluxation
Overuse
Synovitis
Osteoarthritis
Ligament |
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Acute
sprain/tear
Grade i-iii
Overuse
Inflammation
Grade 1:
Cause stretching of a ligament
Usually result in pain and swelling
Nil to mild increase in joint laxity
Grade 2:
More severe partial tearing of ligament
Mild to moderate increase in joint laxity
Usually more significant pain, swelling and bruising
Grade 3
Complete tear/rupture
Often reports snapping sensation
Sense of instability/give way
Often requires surgery
Muscle |
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Acute
strain/tear
contusion/cork
Cramp
Acute compartment syndrome
Overuse
Chronic compartment syndrome
DOMS
Focal tissue thickening/fibrosis
Grade 1:
involves a small number of fibres
Localised pain
normal/close to normal ROM
Normal MM strength
Grade 2
Tearing of a significant number of fibres
More bleeding/bruising/swelling
Higher loss of strength and ROM
Grade 3:
Complete tear, often at the MTJ
High levels of pain, swelling and bruising
Significant strength loss, no mm activation
Look for mm retractions i.e. torn achilles
Significant loss of joint ROM
Often requires surgery
Tendon |
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Acute
Tear - complete or partial
Overuse
Tendinopathy
paratenonitis/tenosynovitis - injury of outer layer of tendon
Tendonosis
Tendonitis
Bursa |
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Acute
Traumatic bursitis - due to trauma
Overuse
Bursitis - common in hip shoulder and knee
Nerve |
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Acute
Neuropraxia
Chronic
Entrapment - repeated/long term compression of a nerve
Minor nerve injury/irritation
Altered neuromechanical sensitivity
INTRODUCTION TO INJURY PREVENTION AND PREVENTING REHAB WITH PREHAB
Primary - for those who have never had an injury
Health promotion
Bracing
Footwear
Secondary - early diagnosis and intervention to limit the development of further disability
RICER
Tertiary - rehabilitation to reduce or correct an existing disability
Rehab following ankle sprain
Wobble board exercise
Primary Systematic Injury Prevention |
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This process enables
Identification of who is at risk
Establish why they are at risk
Understand how injuries occur in different sports
Goal is to provide interventions that address risk factors with the aim of producing a meaningful reduction in injury incidence
What is primary Injury Prevention? |
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Systematic prevention
Classic model - William van Mechelen 1992
Identify injuries in your cohort and all training and match exposure
Identify risk factors and mechanisms in your cohort
Intrinsic
Extrinsic
Introduce interventions to reduce incidence of injury
Evaluate effectiveness of interventions
Injury Prevention Model |
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Inciting event |
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Injury mechanisms
Differ for each sport
Need to be familiar for sport specific literature
Risk Factors |
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Intrinsic:
Age
Gender
Genetic predisposition
Body composition
Fitness level
Biomechanics
Extrinsic
Weather
Surface
Equipment
Training programs
Modifiable:
Can be targeted with training programs
Prevention interventions |
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Warm up
Stretching
Equipment
Appropriate surfaces
Appropriate training
Taping and bracing
Prehab
Suggested to be beneficial for both physical and psychological preparation for sport
Can include:
General exercise
Stretching
Skil specific activities
Prot activity warm down
Warm up - Evidence |
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No data supporting intensity of warm ups
Guide - produce mild sweating without fatigue
Several studies have suggested that a structured warmup protocol designed to prevent injuries can reduce injury risk by 50% or more
E.g. fifa 11+
Stretching |
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Static
Slow sustained hold at point of stretch typically 30-60s
Ballistic/dynamic
Rapid limb movements aimed at rapidly moving muscles to end range length
PNF
Alternating contraction and relaxation of both agonist and antagonist muscles
When to stretch? |
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No evidence pre exercise stretching reduces injury risk
Can cause short term reduction in strength and power
Outside of exercise regular stretching can reduce injuries by as much as 32%
Suitable equipment |
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Running shoes
Key areas:
Heel counter
Hard shell that encases heel
Should be rigid
Test by squeezing between finger and thumb
Should not yield much
Midsole
Forefoot flexibility
Last construction
Last shape
All provide stability
Football boots
Require all features of a good runningZ shoe
Must also have
Cleats placed to allow adequate forefoot stability
Slight gradient from rearfoot to forefoot
Tennis racquet
Impact sport
Force depends on
Ball velocity
Racquet velocity
String tension
Grip size
Size of racquet face
Where the ball strikes the face
Stroke mechanics
To reduce the loads on the athlete consider:
Increase grip size
Decrease string tension
Increase racquet head size
Increase flexibility of racquet
Protective equipment
Usually for high energy or contact sports
Football
Skateboarding
Motor racing
Road cycling
Pads
Shoulder
Shin
Thigh
Knee
Helmet
Mouthguards
Surface interaction
Impact on shoe surface traction
Different types of grass - incidence if ACL injuries
Synthetic vs grass
Impact on impact
Hard surfaces result in the musculoskeletal system being subjected to higher loads
Loaded walking 2x
Running 3-4x
Jumping 5-12x
Hardness of surfaces should be considered because of its association with overuse injuries
Tendimptathy
Stress fractures
Shin pain
SAID - specific adaptation to imposed demands
Periodisation
Specificity
Overload
Individuality
Periodisation |
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Conditioning (preparation)
Aimed at building base aerobic or anaerobic condition, strength or power
Often a longer phase in which the athlete gradually builds the necessary foundations required to perform in their chosen sport
Is characterised by periods of heavier workloads over a 4-6 week period, broken with a week of active rest to allow the athlete to recover
Is also a tissue conditioning period
Increased bone density
Increased stiffness of tendons
Increased strength of muscles
Transitional (pre-competition)
Competition
Specificity |
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Specific adaptation to imposed demands
Refers to the specific athletic traits or skills that are required for a given sport
Train toward the traits you wish to improve
Speed
Endurance
Explosive - jumping sports
Skill based
Power
Strength
Overload |
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Apply stress more than what is normally encountered
Increase stress with adequate adaptation - supercompensation
Can come in the form of:
Intensity
Frequency
Duration
Coaches manipulate each of these variables to create an overload effect, imposing a demand on the body
The response to this demand is an improvement in performance capacity - strength, endurance, speed etc.
Individuality |
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Important to understand each athlete
Tolerance for work
Lifestyle
Nutritional intake
Goals
Genetics
Programs must be shaped to meet each athletes profile
Each athlete will respond differently so recipes can be a problem.
Training methods |
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Energy systems
Aerobic
Anaerobic
Strength and power
Isotonic, isometric, isokinetic
Olympic lifting
Plyometrics
Other
Speed
Agility
Skill
⅓ of all acute injuries
Gradual increase in severity
Risk factors:
Eccentric phase most common
Age, previous injury
Reduced hip ROM - reduced hamstring flexion
Reduced hamstring strength - forces to resist knee flexion and initiate hip extension exceed muscular tendon unit
Prevention programs
Standard stretching - mixed results
Increase strength
Nordics
Load management
Most common injury in sports
10 million in USA yearly
Risk factors
Previous injury
Postural sway
Stability of joint and surrounding ligaments
Prevention programs
Taping and bracing
Balance board to improve proprioceptive function
Neuromuscular training
Most costly injury in sports
9-12 months
Risk factors
Sex
High friction shoes and surface
Strength around knee joint
Prevention programs
Strength, balance, neuromuscular control
Increased core and lower limb stability
Raised awareness/alignment of knee position
Restrict undesired motion, allow desired motion
Only evidence is in ankle sprains unless previous history of injury
Rigid non stretch best
Bracing:
Higher cost but lasts longer
Custom made
Originally published in WWII
Improvement in physical and mental measures following pre-war rehab centres
First sports med research in 1980s
Theoretically sound
Enhancing functional capacity rto enable client to withstand a forthcoming stressor
Current evidence is inconclusive
Small improvements to clinically insignificant findings in physiological and psychological parameters
Key Concept |
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Attempts to decrease risk of injury by addressing concern or deficit identified
Key Phases |
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Analysis:
Posture
joint alignment
Flexibility
Muscle control
Biomechanics
Core stability
Movement patterns
Understand
Demands and risks of sport
Considerations
Player
Position
Coach
Tactics
Benefits |
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Hypothesised improvements in:
Static and dynamic posture
Muscle length imbalance
Joint alignment
Flexibility
Core stability
Movement pattern efficiency
Proprioceptive
ELDOA/Myofascial Stretching |
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Postural exercises which im at widening the space within a pair of joints
Goals:
Create space
Decompress joint
Decrease pain
Reinforce stabilisers
Injury prevention model
Extrinsic, intrinsic etc.
Know components of warm up/stretching
Be familiar with training methods and energy systems
Periodisation
Specificity
Overload
Individuality
SAID
Injury mechanisms, risk factors and prevention programs
Theoretical basis
Potential benefits
ELDOA
Practical exam
Perform exercises specific to injury/sport
Correct technique/posture
Anatomical landmarks
Review of lower limb injuries, biomechanics and training prevention
To assess gait and its contribution to injury, we require an understanding of:
Normal mechanics
Loading during the various phases of the gait cycle
Common biomechanical features that may contribute to injury
The Gait Cycle |
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Characterised by 2 phases
Stance or support
Swing or non support
Can be divided further into 7 periods
Walking has 2 double support periods
Running has 2 float periods
Running vs walking |
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Kinematic features:
Float phase - no double stance phase
Decreased overall stance time, increased swing time
Increased anterior pelvic tilt
Increased range of the hip and knee in the sagittal and coronal planes
Flexion and extension hip and knee
Adduction hip - narrow base of support
Kinetics
Increased vertical ground reaction force
Significantly higher eccentric muscle contractions
Jogging (recreational running)
Impac GRF (foot strike) = 1.5-2 x BW
Propulsive GRF (toe off: 2-3 x BW
Running (competitive running)
Impact GRF - very low
Propulsive GRF - almost 2-3 x BW (slightly less than jogging)
Shear ground reaction forces
Mediolateral shear
Increased propulsive medial shear force at toe off
Anterioposteriosr shear
Anterior (braking) shear from foot strike to mid support, followed by a posterior (propulsive shear) at toe off
Greater posterior propulsive shear in running compared to jogging due to reduced vertical GRFS
Novice runners ‘bounce’ whereas accomplished runners ‘glide’
Impact of Foot strike patterns |
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Heel
Mid
Forefoot
Strikes in slight PF
DF as heel lowers to ground
Foot more compliant → better absorption
basic theory regarding barefoot running
Still need to consider habitual foot strike pattern
Not all people are built or suit
Barefoot or forefoot running
Minimalist running footwear
Changes in pattern requires
Changes in neuromuscular pattern
Significant adaptation of tissues to absorb GRFs
Alignment
Flat foot or high arch
Leg length
Knock knee or bow
Ankle lunge - DF range
1 leg squat
Calf raise endurance
Take off and landing technique
Lower limb and foot posture
Hamstring |
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Examinations
Observation
Active movements
Passive movements
Resisted movements
Functional tests
Palpation
Special tests
Preventing hamstring injuries
Increasing hamstring strength:
Single leg HS catch
Single leg bridge catch
Single leg ball rollouts
Single leg slide outs
Nordic eccentric
Single leg reverse deadlift
Increasing hamstring synergist strength
Barbell hip thrust f
Barbell hip thrust e
Squat
Deep lunge
(Glute max and adductor magnus)
Acute Knee Injuries |
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Examinations
Observation
Active movements
Passive movements
Resisted movements
Functional tests
Palpation
Special tests - effusion
Special tests - MCL
Special tests - LCL
Special tests - Lachman's ACL
ACL also commonly results in injury to medial meniscus and MCL
Increasing hamstring, gluteal and core
Bridging
Hip extension
lunge/squat
Proprioceptive
Acute Ankle Injuries |
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Observation - standing and swelling
Active movements
Passive movements
Resisted movements
Functional tests
Palpation
Special tests - Anterior Drawer
Special tests - Talar tilt
Special tests - Proprioception
Ottawa foot rule
xray required if pain tenderness on posterior tip of lateral/medial malleolus, base of 5th metatarsal, navicular or malleolar zone
Preventing ankle injuries
Active strength exercises
PF, DF, inversion, eversion
Weight bearing exercises
Wobble board/shuttle
Proprioceptive exercises
‘Functional’ balancing
Calf Injuries |
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Prevention
Farmer walks
Calf raises
Plyo squats
Standard stretching
Downward dog
Foam rolling
Foot Injuries |
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Examinations
Rearfoot palpation
Midfoot palpation
Forefoot
Prevention
Foot rolling
Bosu
Toe raises
Bands
Foot stretch to bear squat
CONCUSSION AND FACIAL INJURIES
Subtype of head injury
Complex pathophysiological process which affects the brain, induced by traumatic biomechanical forces
Rapid onset of impaired neurological function
Diagnosis and symptoms complicated
Determine grade of concussion:
Grade 1 - no LOC, amnesia and post concussive symptoms <15min can RTP
Grade 2 - brief LOC, amnesia or post concussive symptoms lasting longer than 15 min - no RTP, review by doctor, gradual RTP when well
LOC >1 min or altered consciousness >2min. Post concussive signs lasting longer than 30min: transport to hospital with C/S precautions. Once asymptomatic for 1 week can gradually return to activity.
Doctor or neurologist should clear for RTP for grades 2 and 3
Repeated episodes of concussion (even if grade 1) during a season need a full neurological consult and consideration of no RTP that season
Days to weeks after the impact, the player may experience
Sleep difficulty
Persistent low grade headache
Poor attention and concentration
sad/irritable/frustrated
Tired easily
Lethargic, low motivation
Testing for concussion |
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Cerebral function
Where are we? Who are you playing? What is the score? - Orientation
What happened? Can you remember walking off the field? - Tests anterograde amnesia
What was last weeks score?/Who did you play last week? - Tests retrograde amnesia
Does your head hurt?
Is there any pain in your neck? Can you move your hands and feet normally? - Spinal cord
Have you been knocked out before? - second impact syndrome
Count backwards from 100 in 7s - test cognitive function
Repeat 5 random words for the athlete to remember and ask later - test immediate and delayed recall
Cranial Nerve function
Sense of smell
Eye tracking
Imitation of facial expressions
Biting
Balance
Swallowing
Tongue protrusion
Upper trap strength
Eye function
Pupils equal and react to light
Check for irregular or dilated pupils
Blurred or double vision
Cerebellar function
Coordination - finger to nose, heel to toe walk
Balance - 2 leg stance, 1 leg stance, then with eyes closed
Advice for concussion |
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Seek medical attention in the event of any of the following
Increased dizziness
Increased headaches
Loss of concentration
Loss of balance
Vomiting
Naurea
Blurred vision
For next 48hrs
No alcohol
Rest
Monitored by responsible other
No drugs
Be woken at intervals to check no further deterioration
Post concussion syndrome (PCS) |
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Mild traumatic brain injury
Symptoms that persist more than 2 weeks
Physiological characteristics include:
Increased HR
Increased diastolic BP during exercise
Increased HR variability (parasympathetic response)
Increased cerebral blood flow during exercise
5-10% of concussions will persist for more than 6 weeks
No known cause for persistent symptoms
Prior history of concussions increases the likelihood of PCS
The most common symptom is headache
Experiencing dizziness is the most definitive predictor of poor outcomes long term
“Rest is best” (no exercise)
Facial injuries in sport |
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Direct trauma
Profuse bleeding
Possibility of neurological issues
Prevention:
Faceguards
Helmets
Mouth guards
Eyeglasses
SPINAL AND NECK INJURIES
The spine consists of:
7 cervical vertebrae
12 thoracic vertebrae
5 lumbar vertebrae
5 fused sacral vertebrae (sacrum)
4 fused coccygeal vertebrae (coccyx)
Spinal cord:
Passes down from the midbrain at base of skull to the level of L1/2 in most adults
Protected by the vertebral column
Surrounded by fluid that acts to protect the nerves like tissue
Transmits signals to and from limbs, trunk and organs of the body
Spinal nerves/nerve roots
Nerves which come off the SC and pass out between the vertebrae to carry information to and from the spinal cord to the rest fo the body
The cervical spine consists of:
7 cervical vertebrae
6 intervertebral discs
8 pairs of exiting nerve roots
Primary functions of cervical spine are mobility, support and protection of spinal canal.neural structures
C1 (Atlas)
Uppermost cervical vertebrae
Serves as a ring/washer that the skull rests upon
Articulates in pivot joint with the dens or odontoid process of C2
The C0-C1 joint provides 50% of C/S flexion/extension - i.e. nodding
C2 (Axis)
Second uppermost cervical vertebrae
Odotoid process forms the pivot for the C1 to rotate
The C1-C2 joint provides 50% of C/S rotation
Vertebrae C3-7
More classic shaped vertebrae
Possess:
Vertebral body - IV discs sit on/between these, supports weight
Spinal canal - opening in the vertebrae that the spinal cord passes through
Pedicles - thick bony protrusions that connect the vertebral body to the spinous/transverse processes
Laminae - posterior bond that covers the spinal canal
Spinous processes - posterior bony protrusions - can be palpated
facet/zygapophyseal joints/Z joints - synovial joints, each vertebrae has 2 sets of facet joints
Smaller amounts of flexion/extension and rotation occur segmentally from C2-7
Cervical nerves
8 pairs of cervical nerves
Each nerve root exits the spinal canal superior to the vertebrae of its corresponding number
C1 nerve root exits between the Occiput (C0) and C1
C2 nerve root exits between C1-2
C8 nerve root exits between C7-T1
T1 nerve root exits between T1-2
Lie between adjacent vertebrae from C2-3 to L5-S1
Composed of
Nucleus pulposis - jelly like substance located in the middle part of the disc
High water content which reduces with ageing
Annulus fibrosus - tough outer layer of the disc which contains and protects the nucleus pulposis
Cartilage end plate - a thin layer of hyaline cartilage that separated the disc from the bone
Neck Injuries |
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Can be acute or chronic
Acute pain: usually a sudden onset and present for <3 months
Most commonly idiopathic or whiplash associated disorder (WAD)
Frequently persistent or recurrent
Lifetime prevalence of neck pain in adults estimated to be between 50-80%
Only 1-2/20 people with neck pain find it disabling
Cervical spine key points |
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Always apply DRSABCD/STOP/TOTAPS principles when dealing with c/s injury
Allways assume a spinal injury if pt is unconscious/semiconscious until proven otherwise
In the event of an acute suspected spinal injury - immobilise the neck/spine until qualified assistance arrives
Know scope of qualifications
Refer on to suitably qualified medical professional asap for further Ax/Mx
Whiplash associated disorder |
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An acceleration/deceleration mechanism of injury transferred to the neck usually as a result of MVA
Symptoms can be immediate or delayed (open 24-48hrs)
Most common symptom is pain/stiffness/spasm
Usually predominantly in c/s but also commonly found in arms, t/s and even l/s
Other symptoms include neurological symptoms (P+N, numbness), dizziness, headaches and various cognitive impairments
Usually caused be MVS, especially collisions where impact is either head on or hit from behind
Classification
Grade 0 - no complaint about C/S, no physical signs
Grade 1 - complaint of neck pain, stiffness and tenderness only. No physical signs
Grade 2 - neck complaining AND musculoskeletal signs - decreased ROM and point tenderness
Grade 3 - neck complaining AND neurological signs - decreased/absent tendon reflexes, weakness and sensory deficits
Grade 4 - neck complaint AND fracture or dislocation
Pathophysiology
Evidence suggests:
Lesions to C/S structures, especially facet joints
Sensory disturbances indicative of augmented central pain processing mechanisms
Disturbed mm function in the form of morphological mm changes and disturbances in movement and neuromuscular control
Disturbed sensorimotor control including kinaesthetic deficits, loss of balance and loss of eye movement control - these are often associated with dizziness
Initial treatment
Relative rest
Ice - good for relieving pain acutely. Discontinue if this increases pain or mm spasm or if patient doesn't tolerate
If only moderate pain/stiffness, then heat may be more appropriate
Avoid c/s collars
See GP/hospital Xor C-ray and physio referrals - commence physio treatment ASAP
GP will need to assess/document for any third party or insurance claims
Early ROM within tolerated limits
Gentle isometrics of deep neck flexors and pain levels begin to subside
Cervical postural syndrome |
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Prolonged poor posture
Chin protraction
Excessive c/s lordosis
Results in damage to ligaments, mms and joints posturally
OA may develop - esp in facet/Z joints
headaches/pain referring into shoulder/arm may be associated with this condition
Common in athletes who adopt prolonged postures - cyclists, baseball catchers, hockey players
Acute Wry Neck |
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Sudden onset of sharp neck pain with deformity and limitation of movement
Mechanism: sudden, unusual movement such as unexpected tracking, sustained unaccustomed postures (e.g Rock climbing, sleep on sofa) and waking with a stiff neck
Apophyseal Wry Neck
More common in younger people up to early 30s
Usually a sudden onset from a particular movement
Pain reproduced when rotating/laterally flexing towards side of facet joint inflammation
Discogenic Wry Neck
Can occur at all ages but more common in older people
Usually a more gradual onset i.e. waking after sleeping in awkward posture
Can often refer pain down the c/s and t/s
Initial management
Rest
Ice/heat - trial with ice if very painful. Use heat if ice not tolerated or if it increases mm spasm or pain
Start with heat if moderate pain/stiffness initially
Pain medications - discuss with medical practitioner for patient suitability: paracetamol, NSAIDS
Physio referral ASAP
Cervical Disc Injuries |
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Common causes of herniated cervical docs include:
Aging
Trauma e.g. rugby tackle
Flexion injuries i.e. WAD
Most common levels are:
C5/6
C6/7
Symptoms include:
Usually an intense pain in the c/s, headaches - often describe pain as knife like
Can often report difficulty sleeping due to intense pain
Symptoms can often refer in to the shoulders and/or down the upper limbs
In addition to pain, these can include P+N, numbness and loss of strength/power in the upper limb
Initial management
DRSABCD/STOP/TOTAPS
Know scope
Relative rest
See GP/hospital for:
X-ray referral - need to rule out red flags
Appropriate pain meds/ NSAIDS?
ice /heat as tolerated
AROM of C/S within tolerated limits initially
Commence physio rehab ASAP
Thoracic Complex - Ribs |
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12 sets of ribs
Articulate with thoracic vertebrae and sternum
7 pairs of true ribs - attach directly into sternum
5 pairs of false ribs consisting of:
2 pairs of floating ribs - no sterna attachment, only spinal
3 pairs attach to sternum via costochondral cartilage
Common Causes of Pain/Stiffness in the T/S |
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Hypermobility of the intervertebral segments
Paraspinal mm strain
Costovertebral joint sprain
Rib trauma
Fracture - not to be missed
Rib Trauma |
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Usually arises from a direct blow to the chest wall
Can result in cruising, undisplaced/displaced rib fracture
Symptoms: usually very painful and local tenderness, worse with coughing/deep breathing
Need to rule out pneumothorax or trauma to liver, kidney or spleen
Ribs 5-10 most commonly fractured
Rx: analgesia, encourage deep breathing exercises to prevent 2° lung conditions, taping may assist in controlling pain, thoracic spine mobility as tolerated, GP/physio review if not settling
Thoracic Postural Syndrome |
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One of the most common causes of day to day t/s pain
Patients typically report a gradual onset of pain and tightness in t/s
Symptoms can also be located in neck, shoulders or l/s
Usually wake with no/minimal pain, but pain increases through the day following sustained poor structures
I.e. sitting at desk all day
Causes include:
Weak core mms/postural mms
Mm tightness - pecs, hip flexors, u.traps
Poor workstation setup
Joint stiffness
Sedentary lifestyle/mm fatigue
Occupation - sitting/standing lots
Sport with sustained postures e.g. cycling
Treatment can include:
massage/stretching of tight structures that are contributing to poor posture
I.e. pecs, upper fibres of traps etc.
Heat
Postural education/retraining
Ergonomic assessments - desk/chair setup
Strengthening exercises of weak postural muscles - core, rhomboids/middle traps, extensors, deep C/S flexors
Postural taping/bracing
Physio review if not resolving
Lumbar Disc Injuries |
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Usually a flexion and/or rotation mechanism of the lumbar spine
E.g. lifting heavy box with flexed lumbar spine
Can be acute or gradual onset
Symptoms
Pain can be located in the lumbar spine and/or the lower limbs
Area of referred symptoms usually correlates with the dermatome for the nerve that is implicated with the disc injury
Other symptoms include
Pins and needles, numbles, loss of strength in lower limbs
Distal symptoms can be present even in absence of lumbar spine pain
True herniated disc patients usually present with one or more of the following clinical signs:
Significant restriction and pain in L/S flexion/extension
Positive neurodynamic tests (i.e. SLR test/prone knee bend/slump tested)
May have difficulty with sitting and standing postures
May have weakness on mm testing of the muscles innervated by affected nerves
Tightness In mms innervated by affected nerve
Treatment of L/S Disc Injuries |
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Relative rest - avoid prolonged bed rest
See GP for:
Advice in pain medications / ?NSAIDS
See GP for imaging - XR/CT/MRI scan if appropriate
Heat
Postural taping
Hydrotherapy
Isometric core activation exercises
L/S and LL ROM exercises as tolerated - build into graded strengthening program
Physio review ASAP
Zygapophyseal joint injury |
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Z joint (facet) injuries can arise during or after the following movements
Twisting
Lifting - heavy and/or repetitive loads
Lumbar extension
Lumbar flexion/lateral flexion
Prolonged sitting
Patient often complains of following symptoms in L/S
Bi/unilateral pain/stiffness
Mm spasm on the affected side(s)
Pain may refer into buttocks/LL
Symptoms can be reproduced with L/S movements that involve the affected joint level
Treatment includes
Relative rest
Activity modification e.g. workstation review
Heat
Stretches - L/S, LLs
Hydrotherapy
Postural taping
Core activation
Graded strengthening program as tolerated
Physio referral if not resolving
Spondylolysis |
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Stress fracture of the pars interticularis
Gradual onset of LBP
Microfracture in a bone
Results from repetitive physical loading of a bone at levels higher than its ‘failure threshold’
Diagnosed by X-ray, bone scan, MRI
Mechanism:repeated L/S hyper extension and rotation
Pain usually reproduced with clinical testing of L/S extension, side flexion (towards painful side) and rotation (towards painful side)
Pain also reproduced wit combined L/S extn/side flexion and rotation
Common for pain to refer into the buttock(s)
Cricket fast bowling, gymnastics, throwing sports, high jump etc.
Pain usually found on opposite side to one performing activity
E.g .right arm bowler usually develop stress fracture on left side of L/S
Spondylolisthesis |
---|
Anterior displacement of part or all of one vertebra on another
Often associated with familial bilateral pars defects evident in early childhood
Graded according to the degree of anterior displacement of the vertebrae
Condition is aggravated by extension activities
Prescription:
core / extensor stabilisation exercises, lumbopelvic mobility/stretching, antilordotic bracing/taping if appropriate
GIII/IV: avoid contact sports, spinal fusion ,may be indicated if displacement is progressing
UPPER LIMB INJURY EXAMINATION AND PREVENTION
Examinations
observation:
Active movements
Passive examination
Resisted examination
Special tests
Jobe
Hawkins
Neer
Apprehension
Relocation
Full can
Increasing shoulder capacity
Rotator cuff exercises
Shoulder stability
Scapular muscle recruitment
improve UT/MT and UT/LT ratio
Improve UT/SA ratio
Examinations
Observation
Active movements
Passive movements
Resisted movements
Palpation
Special tests
Periscapular soft tissues
Preventing elbow and arm injuries
Active strength exercises
F,E of wrist, isometric, concentric, eccentric or functional
Coordination
supination/pronation with body blade
Weight bearing exercises
Forearm F, E
Examinations
Observation
Active movements
Passive movements
Resisted movements
Palpation
Special tests
Straight leg raise
Prone knee bend/femoral slump
Injury prevention
Posture and core stability
Lifting correctly
Overall health and wellbeing
Strengthening exercises
Bird dog
Wall sits
Knee to chest
Bridging
Examinations
Observation
Active movements
Passive movements
Resisted movements
Palpation
Special tests
Watsons
Triangular fibrocartilage complex
Ulnar fovea sign
Press test
Injury prevention
F, E, Abd of joint
Be aware of imbalance
Don't have to isolate
Downward dog to wall
COMMON INJURIES OF THE HIP AND GROIN REGION
Pain in the hip region can be often difficult to assess its origin
Can include pain in the buttocks, lateral hip, anterior hip and groin
Groin strains account for 5-15% of al football related injuries
3rd most common in AFL
Could be referred pain from L/S or SIJ
Look at pain patterns and type/quality of pain, often can give clues to origin of pain source
Hip joint; femoroacetabular joint
Tri planar synovial joint - need to consider all movements when assessing
F/E
Abd/Add
ER/IR
Formed by head of the femur articulating with acetabulum
Acetabular labrum
Forms socket of hip joint
Ring of fibrocartilage attached to ring of acetabulum
Deepens the socket component of the hip joint, leading to greater joint stability
Distributes hip forces over a wider area, leading to protection for the hip joint chondral surfaces
Ligaments of the hip
5 ligaments
4 extracapsular ligaments and 1 intracapsular - ligamentum teres
Chondral surfaces
Both articular surfaces of the hip are lined with articular cartilage
Referred pain from L/S |
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Possible to have referred pain in buttocks/hip region in the absence of L/S pain
Common pain producing structures causing referred pain into the buttocks and hip region are:
IV discs
apophyseal /facet joints
Spondylolysis (stress fractures) and spondylolisthesis (slipping of one vertebra on another) can also refer pain into the hip/buttock region
Trigger points - i.e. piriformis and glutes
Hamstring Origin Injuries |
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Can either be acute or chronic
Occurs at the origin near the ischial tuberosity (sitting bone)/lower gluteal region
Often seen in athletes in running and jumping sports
Gradual onset pain in hamstring origin and often be associated with the development of a proximal hamstring tendinopathy
Acute onset:
If boney tenderness over ischial tuberosity, need to rule out avulsion # of hamstring tendon. Often associated with a pop or crack. Must not play on and seek further medical follow up/imaging
Usually pain reproduced on field with
Palpation
AROM F/E?straight leg raise
Resisted knee flexion with hip in neutral and in 90° flexion
Resisted extension in neutral and 90°
PROM hip flexion/straight leg raise
Functional testing
Bending forwards e.g. pick up ball
Leg swings (front)
Squats
Esp deep squats that load proximal hamstring
Lunges
See AlsoBrain–Periphery Interactions in Huntington’s Disease: Mediators and Lifestyle Interventions.Esp deep
hopping/jumping
Kicking
Running
Esp high knees
Lateral Hip Pain |
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Common in distance runners and women over 40
Traditionally thought to be due to trochanteric bursitis, recent studies show that glute med/min tears, tendinopathies and trochanteric bursitis can all co exist
New global term is Greater trochanter pain syndrome (GTPS)
GTPS |
---|
Common to experience pain at side of hip joint over greater trochanter
Commonly a gradual onset of pain due to tightness of overlying structures (ITB/TFL/Glute med) and overuse i.e. commencement of walking/gym program, prolonged standing one one extremity, overuse etc. ‘
In an acute onset, trauma to the lateral hip can lead to development of bursitis (i.e. landing on the lateral hip in a tackle)
Usually settles with soft tissue releases of tight overlying structures, hip strengthening (isometrics initially, then moving into graded loaded program), stretching
NSAIDS and ice
Clinical diagnosis
Palpation - usually quite tender over greater trochanter - don't forget to rule out fractures of the femur or other serious pathologies e.g. Perthes and slipped femoral capital epiphysis.
Patients often report pain in side lying on affected side - as injury progresses these patients find sleeping on unaffected side painful too due to tight overlying structures compressing the bursa in that position or stretching of already irritated structures
FABER frequently positive
Pain with resisted hip ER and ABD
Analyse gait and SL squat - poor hip control on WB leg can often aid with diagnosis. If this is unclear, increase speed, work to fatigue or increase loading e.g. single leg hopping
FABERS Test |
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Flexion, Abduction, ER
Ankle of affected leg placed across thigh og non affected leg
Downward pressure applied to knee
Lateral hip pain is indicative of superolateral and lateral FAI
Groin pain can reflect iliopsoas pathology/psoas impingement against femoral heat or anterior capsule irritation
Posterior pain can indicate SI joint pathology
FADDIR Test |
---|
Also passive
Thigh in 90° hip flexion, abduction and IR
Positive when:
Anterior, anteromedial hip pain due to impingement of the anterior and anterolateral part of the femoral neck against the superior acetabular rim
Hip and groin pain |
---|
Common for pain in the groin region to be referred from hip region’
Common sources of anterior hip pain
Synovitis
Labral tear
Chondropathy
OA/Femoro-acetabular impingement (FAI)
Common sources of groin pain
Adductor pathology: mm tears/tendinopathy/tightness
Referred pain from abdominal wall (hernia?)
Hip joint pathology
Osteitis pubis/pubic symphysis misalignment/dysfunction
Adductor Strains |
---|
Common in sports requiring sudden changes of direction
Clinical diagnosis
Tender over sire of strain, bruising
Pain with resisted adduction - knees flexed or extended
Pain with PROM hip abduction - knees flexed or extended
Difficulty walking - esp when increasing stride length
Diagnosing the Hip and Groin |
---|
Palpation - often biggest hint to find pain source
Active movements
Hip F/E, Add/Abd - can do adductor squeeze test, IR/ER neutral and 90°
Passive movements
Adductor stretch (knee in extension)
FABERS
IR/ER
Hip F/E
Thomas test
Cough test
Resisted abdominals
Thomas Test |
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Can help identify tightness in the following MM groups
Iliopsoas:
knee of lower leg not sitting lower than the line of the greater trochanter
TFL/ITB
These are tight if the pelvis (once corrected) has the lower leg in an abducted position away from the midline
Rectus femoris
I the ankle of the lower leg is not sitting below the line of the knee, this can be due to a tight rec fem (unless the client is not actively switching this mm off - often need to prompt patient to relax)
KNEE INJURIES
Consists of 3 joints
Tibiofemoral
Patellofemoral
Proximal tibiofibular
Menisci of the Knee |
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The tibial surface is covered by fibrocartilaginous menisci
They:
Enhance the joint stability of the tibiofemoral joint by deepening the contact surface area
Aid with shock absorption by transmitting ½ of weight bearing load in full knee extension and some in flexion
Protect the articular cartilage
Distribute load across knee joint
2-4x body weight walking
6-8x body weight running
Contact area in joint reduces 50% when menisci are absent
Structure
Vascular supply good on the most peripheral 20% of the fibres
Supplied by the geniculate arteries
Inner ⅓ of the ring is avascular
Relatively thin
Nourished through synovial fluid
Middle ⅓ is combination
In acute knee injuries with ACL intact, medial meniscus injury is 5 times more likely than lateral
In acute knee injuries with ACL ruptured, common for medial meniscus and MCL to also be involved
Unhappy triad, O’Donoghue’s triad
In repetitive deep squatting, medial meniscus most likely to be injured (20:1)
Twisting on planted foot
Inertial forces or external forces
Acute effusion and pain in acute injury
Difficulty WB, particularly on walking
Medial or lateral joint line tenderness
Often report clicking, catching or pop at time of injury
Intermittent effusion with chronic injury
Pain usually most common at end of range knee extension and knee flexion - often find patients most comfortable position is knee fixed insight flexion (10-15°)
The knee is comprised of 4 major ligaments which contribute to the stability of the knee
ACL prevents forward displacement of the tibia relative to the femur
PCL prevents posterior displacement of the tibia
MCL or tibial collateral prevents valgus stresses
LCL or fibular collateral prevents varus stresses
ACL injuries |
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Mechanisms:
Usually non contact
Change direction
stop/jump
Audible pop
Significant pain but can occasionally subside relatively quickly - need to look at all symptoms
Instability - feeling of giving way
swelling/effusion
Acute diagnosis:
Lachman's test
Can be difficult to test accurately
Need patient to completely relax
Feel for length relative to uninjured side and end feel
Absence of end feel indicates ACL rupture
MCL Injuries |
---|
The MCL is usually damaged after the athlete experiences and external valgus force to the knee
Common mechanism is getting hit from the side in a rugby tackle
Results in instant pain and often swelling if a more significant tear (minor sprains generally do not result in swelling) and/or damage to other structures (i.e. medial meniscus, ACL)
Diagnosis
Valgus stress test
In both 30° flexion and full knee extension
If it reproduces pain and there is laxity, seek further medical review
Treatment
The injured MCL usually heals predictably without repair regardless of its grade
Non-operative management of all MCL tears is considered standard practice
If a patient has damaged the MCL and ruptured the ACL, they will generally stay in an ROM brace to rehabilitate the MCL prior to reconstructing the ACL
Grade I and II MCL
Non surgical treatment
Crutches until symptoms improve
WB as tolerated
ROM
Control swelling - RICE
NSAIDS as prescribed
Hinged knee brace - see treating physio for appropriate settings
Grade III MCL
Again a non surgical approach for isolated MCL ruptures
Brief period of immobilisation - knee brace generally locked for 2-3 weeks before opening up the permitted ROM
May need a longer period of protected WB
Risk of developing PFPS due to prolonged period of knee remaining fixed in flexion
LCL Injuries |
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Result from varus force to the knee
A blow to the medial aspect resulting in disruption of the LCL
Same testing procedure as MCL except varus force
Rehab similar to MCL
PCL Injuries |
---|
Mechanisms:
Falling onto tibia/knee
Dashboard injuries i.e. car accidents
Hyperextension or hyperflexion of knee
Posterior pain (not always)
Minimal pain and dysfunction initially due to dynamic stabilisation of knee by quads
Often non operative approach to rehab
Usually requires extensive rehab/quad strengthening to prevent secondary injuries
Diagnosis:
Posterior drawer test
Increase posterior translation = positive test
Patellofemoral dislocations |
---|
The patella dislocates when it is displaced laterally, leaving the trochlear groove of the femoral condyle
Can either be traumatic (i.e. rotating mechanism on a fixed foot) or atraumatic (i.e. ligamentous laxity in young girls)
Medial patellofemoral ligament provides 54-67% of medial stability of PF joint
Re dislocation rates after primary dislocation are 15-44%
DO NOT MISS ACL RUPTURE even if the patient reports dislocated/subluxed patella - always check the ACL
Diagnosis:
TOP over medial joint line and medial PF ligament
Gross effusion. Swelling
Positive apprehension test - where examiner aims to gently move the relaxed patella laterally, resulting in patient resisting with quad contraction or visible discomfort
Initial management:
Knee generally most comfortable in full extension - aim to immobilise in this position
RICE and non WB
VMO activation exercises
Refer on for further medical review
Will require zimmer splint to be fitted - keeps knee locked in full extension
Require XR if patella has dislocated or subluxed to rule out fracture
Patellofemoral Pain |
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PFPS most common source of knee pain
Anterior knee pain behind and around PF joint lines
Usually gradual pain onset
Aggravated by up/down stairs, lunges / squats, kneeling, jumping, running (esp hills) or prolonged sitting / sit to stand
Pain often eased by knee extension or mobility
Common presenting features
Usually a gradual onset due to any of the following
Weak hip stabilisers (glute med)
Weak VMO/decreased VMO activation
Abnormal lower limb biomechanics (i.e. tibial torsion)
Tight lateral structures (i.e. ITB/TFL)
Tight posterior structures i.e. H/S, calf
Fall onto flexed knee/direct blow
Poor/inappropriate footwear
Prolonged sitting increases pain - often improves when up and moving
Reports of clicking, grinding or aching can be a sign of degenerative changes
Common in running, jumping sports or occupations that require long periods of sitting/driving or squatting/stairs
Much more common in females than males
Increased Q angle
Decreased glute control
Often symptoms improve rapidly with McConnell taping in conjunction with a comprehensive rehab program that targets contributing factors such as mm tightness, mm weakness etc.
COMMON INJURIES OF THE LOWER LIMB
Mms cross 2 joints
Hip extension, knee flexion
Undergoes large eccentric contractile forces
High proportion of fast twitch fibres
Represent 15% of all injuries in running based sports and football codes (approx 6 players per AFL team per season)
Very prone to injury
High recurrence rate
High correlation with previous H/S tears
Common eccentric weakness in previously injured leg
Type 1: Sprinting strains |
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Most common presentation
Occur during sprinting
Usually occur at the end or running swing phase
Most often involves biceps femoris
Usually occur more distally than type 2 strains
Type 2: Stretching (dancers) strains |
---|
More common in sports requiring large amplitude movements of the lower limb
Ballet, gymnastics, dancing, high kicking (martial arts)
Most common mechanism is excessive hip flexion
Usually located more proximal (closer to ischial tuberosity) than type 1
Most commonly involve semimembranosus
Rehab time frame usually longer for more proximal (type 2) strains
Limit passive stretching and heavy loading with type 2 strains - appear to further aggravate injury
Swans Study |
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Predict likelihood of recurrence of G1 hamstrings
Predict approx rehab timeframes
All MRI (-) recovered within 2 weeks
More than half within 1
No MRI (+) recovered within 2 weeks
All between 2-5 weeks
Depends on size of strain
Eckstrand (2012) |
---|
84% affected biceps fem
11% semimembranosus
5% semi tend
16% re injury
All involved biceps fem
When to MRI/Refer |
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In conjunction with thorough assessment
acute/elite amateur athletes
If the patient is in 2nd/3rd week of rehab
Still troubled by unresolving anterior thigh pain/dysfunction
Need to ? bulls eye lesion and should be carefully rehabilitated
For remote quad tears (>8wks) troubled by chronic pain/dysfunction
? bulls eye lesion, myositis ossificans etc.
Most commonly located at the MTJ of the medial head of gastrocnemius
Common in sports that require rapid deceleration and COD
Mechanism is a rapid concentric contraction - especially if this directly follows an eccentric contraction
Often reported as a one off tear or pop sensation
Can often be misdiagnosed as a cramp or often can be referred pain from L/S - pain tends to be more intermittent
DO NOT MISS ACHILLES RUPTURES
Importance of accurate history
Common sire of DOMS - especially after heavy session of eccentric loading (plyometrics)
Localised TOP usually over the site of tear
Pain reproduced with contraction of the calf (calf raise)
Pain reproduced with stretching of the gastroc/soleus
Can differentiate between gastroc/soleus with knee position (F/E)
Often find it difficult to heel strike during end swing phase - look for ‘toe walkers’ when assessing gait
Approximate RTP timeframes
G1: 10-12 days
G2: 16-21 days
G3: 6-9 months (post op)
The achilles tendon can either partially tear or completely rupture
Most common in men aged 30-50 (avg 40)
Sudden onset, often with a popping or snapping sound.
very debilitating p the athlete often reports that they felt like they were kicked in the back of the leg
Most likely to occur in sports requiring sudden acceleration/deceleration
Common in middle aged athletes who have not been training or doing relatively little training
Thompson test
Positive if no movement of foot
If suspecting rupture
Positive thompson test
Often accompanied by significant pain/swelling/bruising
minimal/no PF strength (could still be able to PF through tib posterior/FHL
Very tentative to move foot into DF
Apply RICE ASAP
Crutches and non WB
Must seek immediate medical follow up (ED) as most ruptures require surgical intervention
INJURIES OF THE SHOULDER AND UPPER LIMB
Age
Hand dominance
Occupation
sports/hobbies
Medical history (esp diabetes)
Previous shoulder problems/ops
Mechanism
Fall onto outstretched arm
Was arm forced into abd/ER
Was arm forced into add/IR
Location of pain
Night pain
What precipitates pain
Weakness
Loss of motion
clicking/catching
instability/dead arm
Special consideration
Rest pain
Constant pain
neck/scapula pain
Paraesthesia
Consider provisional diagnosis from Hx |
---|
Under 30 years
Impingement
Instability
30-50 years
Impingement
Biceps tendonitis
Arthritis AC joint
Calcific tendonitis
Over 50 years
Rotator cuff tears
Adhesive capsulitis
Arthritis
AC Joint |
---|
Diarthrodial joint (freely moveable joints held together by joint capsule) between the acromion and distal clavicle
Stability provided by coracoclavicular ligaments (most important, acromioclavicular ligaments, joint capsule
Mechanisms:
Fall onto point of unprotected shoulder
I.e. landing on shoulder in rugby tackle
Fall onto outstretched hand
Downward force onto acromion from above
I.e. heavy hit with top of shoulder whilst attempting rugby tackle
Grades:
Mild sprains typically affect
AC joint capsule and AC joint first before affecting coracoclavicular ligaments
Type III and IV injuries consist of complete tears of the coracoclavicular ligaments - associated with marked and visible step deformity
Diagnostic tests:
Palpation
Horizontal adduction test
AC shear test
Squeeze scapula and clavicle together
Initial management
Apply RICE initially
Sling for pain relief and to take injured structures off stretch - 3 days - 6wks
Taping useful
Isometrics once pain has settled
X-ray referral when step deformity or bony tenderness present
Surgery for types IV, V and VI or if failing to respond to conservative management
Restore normal scapula mechanics
GH Joint Dislocation/Subluxation |
---|
Majority of GH dislocations are anterior >95%
Arm forced into abd/ER
Posterior dislocations occur <5% of the time
Arm forced into IR/add
True inferior GH dislocations <1%
Day to day, non traumatic dislocation (i.e. party trick shoulder) may present as multidirectional discoloration due to generalised ligament laxity, usually pain free.
GJH anatomy
Glenoid cavity is very small relative to size of humeral head - like gold ball on tee
Labrum is like ring on top of tee that makes it concave so ball doesn't fall off
Highly mobile therefore very susceptible to dislocation
Complications of anterior GH dislocations
Bankart lesion
Injury of anterior glenoid labrum
Increases chances of future anterior dislocations
Can be accompanied by avulsion fracture of anterior inferior glenoid cavity
Hill-Sachs lesions
Cortical depression/flattening of the posterolateral head of the humerus
Result of forceful impact between the humeral head and anterior inferior glenoid rim during anterior shoulder dislocation
Can be be seen in up to 92% of recurrent dislocations
Early:
Neurovascular injury (rare)
Axillary nerve injury
Fracture of neck of humerus or greater/lesser tuberosities
Late
Avascular necrosis
Can be seen in head of humerus (increased risk with delayed reduction)
Heterotopic calcification/myositis ossificans
Recurrent dislocation
Clinical picture
Patient is in pain++
Holds the injured limb with other hand close to trunk
Loss of normal shoulder contour
Loss of contour may appear as ‘step’
Anterior bulge of head of humerus may be visible or palpable
Gap can be palpated above dislocated head of humerus
Clinical tests for GH instability
Positient
Supine, elbow 90°, shoulder abd to 90°
Apprehension test
Passively taken into ER
+ if reproduces pain/apprehension
Relocation test
Apply pressure to GH joint whilst taking through PROM as per apprehension test
+ if pain decreased or increased ROM until onset of pain
Management of anterior GH dislocation
It is an emergency
Should be reduced in less than 25 hours or may result in avascular necrosis of humeral head
Shoulder X-ray essential following reduction, even if pain free
Sling vs no sling
Recent studies advocating 30° ER brace
Other studies show no sig difference between bracing or no bracing
Subacromial Impingement |
---|
Swimmers shoulder or throwers shoulder
Supraspinatus tendon, biceps tendon or subacromial bursa being impinged (pinched/jammed) between the humeral head and the underside surface of the acromion as it passes through the shoulder joint
Terminology debated as compression mechanism less frequent than initially thought
Exercise therapy priority, manual therapy - short term pain reduction
Subacromial bursa
Decreases friction
Thickens with degeneration and general wear and tear
Can be site of acute irritation or secondary inflammatory response to primary degenerative pathology
Causes of SAI
Activities include
Racket sports - tennis/squash
Swimming and throwing sports
Can also be caused by painting, carpentry, construction work or other jobs involving overhead work or repetitive use (i.e. cleaning)
Even After years of normal use, older people may develop an impingement syndrome
Symptoms of SAI
Usually gradual onset of pain
Usually anterior and/or lateral aspect of shoulder (badge sign) - can often feel like it moves down the outside of the arm towards the mid humerus
Pain with overhead movements
Night pain - especially when side-lying on affected side
Painful arc (70-120°)
Impingement signs
Neers test
Hawkins and Kennedy test
Diagnosing a SAI
Ultrasound imaging only 40% accurate
Clinical tests/signs more accurate than imaging
X-ray useful to identify shape of acromion - is it a bony protrusion that is causing impingement?
Neers test
Arms in IR, guide through abduction in scapula plane
Stabilise scapula with opposite hand
Sensitivity - 72%
Specificity = 60%
Hawkins and Kennedy test
Arm in 90° forward flexion. Elbow bent 90°
Humerus supported at waist, upper limb moved into IR
Sensitivity = 74%
Specificity = 57%
ROM
Scapulohumeral dysfunction
Compare scapula motion through ROM on both sides
Increase loading or repeat movements into fatigue to exaggerate symptoms
Wall push ups
Symmetrical
Smooth
No winging of scapula
Strength testing
IR
Subscapularis, pec
Arms by side with elbows at 90°
IR against ISM resistance
Subscapularis lift off test
Supraspinatus
Empty can test
Jobes test
Attempt to isolate from deltoid
Sitting, arms straight, elbows locked, thumbs down, arm at 30° in scapular plane, elevate arms against resistance
Treatment of SAI
Identify cause before implementing treatment plan
Need to restore scapulohumeral rhythm
stretching/releasing tight structures that contribute to symptoms
Usually pecs, upper traps, subscap and even ERs
Restore strength in scapula stabilisers
Particularly shoulder ERs and retractors that pull the head of the humerus inferiorly/posteriorly
Rotator cuff tear |
---|
Partial thickness tear
Full (complete) thickness tear
May be due to
Impingement
Degeneration
Overuse
Trauma
Partial tears
Conservative
Complete tears
Surgery
Drop-Arm test
Abducted arm slowly lowered
May be able to lower arm slowly to 90° (deltoid function)
Arm will then drop to side if rotator cuff tear
Positive test
Patient unable to lower arm further with control
If able to hold at 90°, pressure on wrist will cause arm to fall
RC tear diagnosis
Pain and weakness (when comparing ISM tests from side to side) can often give a hint as to which mm may be involved
HHD can be useful for detecting subtle variances in ISM strength measures
Pain or limitation into a particular ROM may hin as to which structure has been torn (i.e. if painful or tight in IR range, infraspinatus/teres minor could be implicated as they are being stretched in this movement)
Usually accompanied by positive impingement test, full/empty can tests and drop arm tests
Rotator cuff pathology and/or subacromial impingement
Dysfunctional scapula position
Significant symptom relief and improvement of ROM from scap repositioning
Post cortisone - not usually for approx 72hrs
Stiff shoulder
Frozen shoulder/adhesive capsulitis
Especially stages II and III when pain has decreased and shoulder is stiff. Physio essential to restore ROM and function. Also a role with education and prevention of secondary problems in stage I.
hypermobile/unstable shoulder
Pre and post shoulder surgery
Unclear diagnosis
I.e. pins and needles, multiple pathologies, referring pain into arm, unusual.abnormal pain patterns, headaches etc.
Recurrent dislocations/subluxations
Should be checked after first dislocation if planning to return to contact sports
Rotator cuff tears over 2cm, multiple tears of RC mms, full thickness tears, partial thickness tears over 50% thickness
Frozen shoulder stage 1
If conservative management is not progressing within expected time frames
Unclear diagnosis
ELBOW INJURIES
Biceps brachii
Brachialis
Brachoradialis
Triceps brachii
Pronator teres, supinator
Wrist flexors - pronator teres, flexor carpi radialis, flexor carpi ulnaris
Palmaris longus
Flexor digitorum superficialis, extensor digitorum
Wrist extensors - extensor carpi radialis longus/brevis, extensor carpi ulnaris
Pathologic condition of the common extensor muscles at their origin on the lateral humeral condyle
Epicondylitis suggests an inflammation at one of the epicondyles
Generally occurs in adults between 35-50
Affects 1-3% of the population
Typically overuse
Occupations or sports that involve repetitive grasping with the wrist in extension place the elbow at risk because the wrist extensors must contract during grasping activities to stabilise the wrist
Leads to tendonitis of the origin of the extensor carpi radialis brevis tendon
9x more common than medial
Common symptoms |
---|
Diffuse achiness
Morning stiffness
Occasional night pain
Dropping of objects/weak grip strength
Pain with palpation of lateral epicondyle
Pain with active or resisted wrist extension
Pain with grasping objects with the affected hand
Diagnostic test |
---|
Patient sits with examiner stabilising affected elbow while palpating lateral epicondyle
With a closed fist, patient pronates and radially deviates the forearm and extends the wrist against examiners resistance
Positive result if pain along lateral epicondyle or objective muscle weakness
Initial treatment |
---|
Rest, ice, NSAIDS if no contraindications
flexibility/ROM exercises of wrist flexors and extensors
stretching/massage of extensors (not over tendon)
Active assistive and resistive exercises
Train entire kinetic chain (don't overlook shoulder
Taping / bracing
Golfers elbow
Less common than lateral
Affects medial epicondyle
Irritation of common flexor tendon that inserts into medial epicondyle
Similar diagnostic and treatment principles to lateral.
WRIST INJURIES
Overuse injury of extensor Pollicus brevis tendon and/or abductor pollicus longus tendon
Usually overuse, precipitated by repetitive wrist/thumb motions (typing/mouse movements are common causes)
Often tender to palpate over the first extensor compartment particularly at radial styloid
Can often see swelling of this compartment or through the distal forearm when the condition is advanced
Diagnostic tests |
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Finkelstein’s test - thumb placed in a fist and wrist taken into ulnar deviation
Pain = positive test
Treatment |
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rest/removal from pain provocative activities
Regular ice application
splinting/taping/brace
Physio modalities for pain relief
Referral to specialist/sports physician if symptoms are not settling as predicted
TREATMENT OF ACUTE INJURIES
Involves an acute loading situation in which the load exceeds the ultimate tolerance of the tissue involved
Can be either
Extrinsic - direct blow or collision
Intrinsic - internally generated forces such as a sprain, strain or tear of soft tissue
Stress, staring curve for tendon collagen |
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Factors that can delay healing |
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Age
Poor blood supply
Drugs
Steroids and non-steroidal anti inflammatory - NSAIDS
Excessive or early loading/movement
Principles of treatment/rehab |
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Minimise initial damage
Reduce associated pain and inflammation
Provide environment to promote healing of damaged tissue
Restore flexibility, ROM, strength and proprioception
Sports specific goals in each of these categories
Maintain cardiorespiratory condition during the healing phase
Identify and manage any predisposing factors to injury
Principles of injury treatment |
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Interventions should, by first principle be aimed at stimulating of promoting normal events, not avoiding or changing them
You must respect the physiological process and its required time frame
Factors impacting this:
Age
Severity
Tissue
Drugs
Principles of injury management |
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Interventions available
Acute management - PRICER, HARM
Immbilisation v early mobilisation
Exercise - strengthening, stretching and control
Pharmacological agents - paracetamol
Blood products - PRP
Manual therapy - massage
acupuncture/dry needling
Electrotherapy
surgery
PRICER |
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Protect the athlete from further harm
On field - stop athlete, stop play
Off field - brace, splint or tape, crutches
Rest or relative rest
Reduce rest or reduce activity
Decreases load on tissues
Decreases blood flow to injury site
Contain or limit acute response
Ice
Vasoconstriction
Reduces blood volume to injury site
Reduces metabolic demand of tissues
Lowers O2 requirement of tissues
Reduces waste production
Limit tissue death
Compression
Contains bleeding and swelling
Elevation
Reduces hydrostatic pressure at injury site
Reduces swelling and bleeding
Improves fluid clearance from the injury site
Lymphatic and venous return
Referral/Rehab
Know your scope
Refer to HP
Plan rehab
Coordinate between Hps
Contra-indications in acute inflammatory phase |
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HARM
Heat
Alcohol
Running
Massage
Immobilisation vs mobilisation |
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Has benefits for early repair phase and is crucial for fractures
Muscle injuries immobilisation generally less than 1 week
Allows scar formation
No adverse effects in this time frame
Too much has detrimental effects
Joint stiffness
Degenerative changes - cartilage
Muscle atrophy - weakness
Osteopenia
Acute soft tissue injuries summary |
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Exercise progression - soft tissue injury |
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Pain relief |
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Out of scope
NSAIDS
Neurofen
Voltaren
Naprosyn
Celebrex
Analgesic properties no better than paracetamol
NSAIDS have adverse effects
Irritate GIT
Raise BP
Increase irritability of airways - asthmatics
Can inhibit connective tissue healing
Paracetamol is analgesic of choice
Promote normal pathways dont change them
Non opioid medications
Easily obtained
More active role in changing chemical pain responses in pNF
No addiction
Upper limit of pain relief (taking more doesn't work)
Potential side effects over long periods
Opioid (narcotic medication)
Stronger analgesics for when pain is too high for non opioid
Moderate to high pain
Target receptors in CNS, decrease brains awareness of pain
Prolonged use can lead to addiction or tolerance
Side effects include dizziness, nausea, constipation, mental clouding
Usually prescription only issued by qualified medical personnel
OVERUSE INJURIES
Can be thought of as a gradual failure or fatigue failure of tissues that are subjected to higher volume cyclical loading
Not acute failure
Loads do not exceed the ultimate load tolerance of the tissues in one loading cycle
They present 3 challenges to sports personnel
Diagnosis
Mechanisms
treatment
Process |
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Predisposing factors |
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Can be addressed while in a period of relative de-loading
Predisposing factors typically divided into 2 categories
Extrinsic
External to the athlete
Training errors
Surface
Shoes
Equipment
environment
Intrinsic
Relate to athletes physical characteristics
Alignment
Muscle length
Muscle strength
Muscle imbalance
Genetic factors
Gender, size and composition
Principles of management |
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Period of relative de-loading
Address intrinsic and extrinsic mechanisms in play
Soft tissue massage - connective tissue characteristics
Pharmacological agents if necessary
De-loading |
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Does not necessarily mean no loading - usually a reduction.
Can be complete rest in severe cases
Allows tissues to heal/catch up
Time frame can vary depending on several factors
Typically 3-12 weeks
Tissue type - bone vs tendon
Severity
Criteria for progression |
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Always take measures, flexibility, endurance, strength etc.
Set goals, progress as they are met
Maintain motivation and compliance
Improved measure reflects improved tissue function and capacity
Gives objective data to base rehab on
Be aware of latent symptoms
Symptoms that occur some time after a bout of loading. Commonly pm or next am
May suggest tissues are not coping with loading they are being subjected to
Return to running
Min 20 SL calf raises
Competent sl squat to 90° under load x8
Good pelvic hip control
Walking a given time frame e.g 45 mins
All with no symptoms, immediate or latent
LOWER LIMB EXERCISE REHAB
Type 1 (running)
Most common
Occur during sprinting
End of running swing phase
Usually biceps fem
Usually more distal than type 2
Type 2 (dancers)
More common in sports requiring large amplitude movements of the lower limb
Ballet, gymnastics, dancing, martial arts
Most common mechanism is excessive hip flexion
Usually more proximal than type 1
Usually involve semimembranosus
Rehab usually longer for more proximal strains
Limit passive stretching and heavy loading - appear to further aggravate
Principles of Hamstring Rehab |
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Work within parameters of healing
How is the athlete achieving hip extension
Is glute max overactive or hamstring underactive
Consider relationship between hamstring and surrounding mms (glutes, quads, hip flexors)
Remember hamstring is 2 joint mm
Considerall movements and incorporate entire kinetic chain
Include lumbar spine: ROM/Strength/Neural mobility
Progression - consider long term hamstring weakness - need to develop hamstring strength eccentrically (is program sports specific?)
Limited research regarding effectiveness of static stretching
Emphasis on dynamic flexibility and strength development
Principles of Quad Rehab |
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Minimise VMO atrophy ASAP
Consider potential of RF-CT injury - implications for pushing too hard too early
Incorporate entire kinetic chain
Include mms that work with quads in function movements
Gutes, hamstrings, hip flexors, lumbar spine
Exercises need to become functional prior to clearance for RTP.
Common sources of Ant Knee Pain |
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Patellofemoral pain
Patella tendinopathy
Less common
Referred pain from hip
Fat pad impingement
Infrapatellar bursitis
Age related conditions
Osgood Schlatters
PFJ biomechanics |
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Synovial, gliding joint
Sesamoid bone in the quadricep tendon and the femoral condyle
Relies on static and dynamic stabilising structures to maintain joint congruency
Stability of the PFJ |
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Static
Lateral faucet of the trochlear and the femoral condyle
Increased congruence with greater than 20° flexion
Dynamic
Balance of muscle activity between VL and VMO
Less than 20° flexion dynamic stability maintains congruency
PFJ is subject ot high compressive forces ascending stairs (2.5 x BW) and squatting (7 x BW)
Patellofemoral pain |
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PFPS is the most common source of knee pain
Anterior knee pain behind and around PF join lines
Usually gradual onset
Pain aggravated by activities such as up/down stairs, lunges/squats, kneeling, jumping, running (esp hills) or prolonged sitting/sit to stand
Pain often eased by knee extension or mobility
Causes of PF pain |
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Skeletal structure
Shallow groove, small patella, femoral anteversion, increased tibial torsion, large Q angle, poor foot biomechanics
Muscle imbalances
Tight lateral structures (ITB, lateral retinaculum), decreased VMO, decreased pelvic control (decreased strength of gluteals)
Common presenting features of PFPS |
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Usually gradual onset due to any of the following
Weak hip stabilisers i.e. glute med
Weak VMO/decreased VMo activation
Abnormal lower limb biomechanics (tibial torsion)
Tight lateral structures (ITB, TFL)
Tight posterior structures (H/S, Calf)
Fall onto flexed knee/direct blow
poor/inappropriate footwear
Much more common in females
Increased Q angle
Decreased pelvic/hip control
Direction of body movement - horizontal less stressful than vertical
Weight of the athlete - the heavier the athlete = higher demands on body
Speed of execution - higher speed = higher demands
External load - external loads significantly increase demand on body, don't raise the load to a level that significantly slows the speed of the movement
Intensity - the amount of effort exerted, always start bilateral and progress to unilateral, simple to complex
Volume - usually measured by the amount of foot contacts. Start beginners with volume of 75-100 foot contacts/session, increasing to 200-250 of low to moderate intensity
Frequency - need 48-72 hrs rest between sessions
Age - if younger/less time involved in the sport: reduce demands of a plyometric program and progress as tolerated
Recovery - rest time between sets. For power, work rest ratio 1:3 of 1:4 (higher anaerobic component therefore requires longer rest b/w sets. For endurance training, 1:1 or 1:2 recommended.
INJURIES TO SPECIAL POPULATIONS
Will suffer many of the same injuries as adults
Will sustain different types of injuries due to anatomical differences between age groups
May have the same injury as an older athlete but may have different effects and must be treated differently
Anatomical differences between adult and growing bone |
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Articular cartilage of growing bone is of greater depth and is able to remodel
The epiphyseal plate is vulnerable to disruption
Tendon attachment sites (apophysis) are weak
Long bones are more resilient and elastic - incomplete fractures (greenstick)
During rapid growth phases, bone lengthens before mms and tendons have stretched/strengthened
Bones in children/adolescents have a higher water content and lower mineral content
Less brittle than adult bone
Thick periosteum
Rich blood supply in bone
The epiphyseal plate (growth plate)
Cartilaginous structure that is weaker than bone
Predisposed to injury
Clinical implications |
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Ligaments in children functionally stronger than bone
Younger athlete more likely to injure cartilage, bone, avulsion fracture than to have a significant ligament sprain
E.g. 9 year old with high grade ATFL sprain and swelling over lateral malleolus, avulsion fracture of the fibula must be considered/ruled out
Incidence of injuries |
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Approx 20% of children/adolescents who are participating in organised sport sustain an injury
Approx ¼ are considered serious
Greatest injury risk to children that have just started a new sport
2:1 ratio boys to girls in sports related injuries
Potentially due to rough play/high relative-risk behaviours
Common paediatric injuries |
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Fractures
Postural abnormalities
Osteochondroses
Greenstick fractures |
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Common in forearm and lower leg
Where bone bends/partially breaks - incomplete fracture where the break is on the opposite side to the bend
More common in children/adolescents where bones are more flexible - adult bones more brittle and tend to break under the same injury mechanisms/relative loads
Mechanisms of injury similar to typical fractures
Like trying to snap a green tree branch
If no growth plate damage, simple immobilisation for 3-6 weeks
Must see GP/ED for review
Epiphyseal plate fractures |
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Standard fractures of long bones where the fracture involves the epiphyseal plate
These account for ⅕ of major long bone fractures and ⅓ of hand fractures in children and adolescents
Salter harris scale
High correlation with potential growth complications
5 types
Type i-ii: usually heal well, but may be associated with local growth plate closure and osseous bridging
Type iii-iv: usually associates with high complication rates/growth disturbances
Type v: uncommon compression injury to the end of the bone, resulting in compression of the epiphyseal plate - usually a poor prognosis/significant growth deficits
If there is joint involvement, thai increases the complication rates (very high)
Need to suspect epiphyseal plate injury if high force/shear/rotation with associated TOP and loss of function
Need to see GP/orthopaedic specialise asap regardless of classification
Slipped capital femoral epiphysis |
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May occur in older children, esp 12-15 years
Similar to salter-harris type 1
Common in overweight boys
Symptoms may present suddenly or gradually over time
Often presents with a limp and pain in the hip or knee
If presenting with knee pain, reinforces importance of clearing the hip
Clinical signs:
Noticeable limp during gait - often for no known cause
Decreased hip abduction and internal rotation
X-ray - widening of growth plate and line fro superior surface of neck of femur does not intersect growth plate
Avulsion Fractures |
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Commonly seen in attachment sites of ligaments and larger tendons to bone
Sartorius/ASIS
Rectus femoris/AIIS
Hamstring/ischial tuberosity
Iliopsoas/lesser trochanter of femur
Similar injury mechanisms for typical ligament sprains or muscle strains
Need to be highly suspicious when boney TOP present (X-ray?)
Management rarely surgical - similar to that of a grade iii tear of mm/ligament
Control pain/swelling
Restore full PROM - gentle stretching/massage
Increase into AROM as symptoms settle
Graduated strengthening program
Work Closely with GP/physio
Reattachment of avulsed fragment rarely necessary
Back pain and postural abnormalities |
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Causes of back pain similar to those in adults
Ended to consider other biomechanical factors such as leg length discrepancy, pelvic instability, excessive pronation
Minor complaints usually respond well to reduction in activity
Back pain in children under 18 is always pathologic until proven otherwise
Scheuermann’s lesion |
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Osteochondrosis of the spine - affects growth plates
Males more than females
Excessive T/S kyphosis typically in teenagers
Cannot consciously correct posture
Associated wit acute pain and stiffness in T/S
Symptoms most prevalent during periods of rapid growth
May develop compensatory lordosis
Usually diagnosed on X-ray
Positive if there is >5° wedging of more than 3 adjacent vertebrae
Treatment aimed at preventing progression of condition
Postural exercises
Strengthening
Stretching
maddaga/physio
Avoiding pain-provoking activities
Heat packs
Postural braces can be worn
Further medical review if curvature >50° or any signs of spinal cord irritation
Scoliosis |
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Abnormal curvature of the spine
Affects more boys than girls
0-5° curvature is common
Often resolve with bone growth
>15° may brace
Clinical signs:
Uneven shoulder height
Notable pelvic asymmetry/tilt
Large scoliosis may be observable from behind
Forward flexion test
Becomes more visible as client bends
Usually confirmed by basic spine X-ray
Treatment
Varies on following factors:
Underlying cause
Location and size of curvature
Is client still growing?
May recommend brace ig still growing
May benefit from traditional core stabilisation and restoration of ROM exercises
GP review
Osgood-Schlatter Lesion |
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Osteochondritis that occurs at the growth plate of the tibial tuberosity
Repeated quadricep contractions under load may cause softening/partial avulsion
Extremely common in adolescents during growth spurts, esp 11-15 years
Usually associated with forced knee extension, esp in sports involving running and jumping
Clinical signs
TOP++ over tibial tuberosity
May have an observable bump/swelling at tibial tuberosity
Pain on resisted knee extension
Tight quads
Pain with lunges, squats and functional tests such as hopping or jumping
Treatment
Activity modification - relative rest, avoid aggravating activities - or when not possible, stopping aggravating activity prior to the onset of pain
ice/modalities
stretching/massage/foam roller
taping/bracing of patella tendon
Graded strengthening program as tolerated
Address any factors which also may be contributing
I.e. landing technique from jump
GP review
Sinding-Larsen-Johansson Lesion |
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Similar to osgood schlatter’s but less common
Affects inferior pole of patella at superior attachment of patella tendon
Treatment principles sams as for OS
Perthes Lesion |
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Osteochondritis affecting the femoral head
Presents as limp or low grade ache in thigh, groin or knee
Restrictions into internal rotation and abduction, FABER
Typically affects children aged 4-10
More common in males
Reduced blood flow to the joint
X-ray finding may show femoral head disfigurement, flattening or collapse
Management:
Aim to minimise further progression of condition - degenerative arthritis
Relative rest/unloading from aggravating activities
ROM exercises: esp to maintain abduction and hipIR
Swimming and cycling are good exercise options
Children under 6 generally have a good prognosis
Use of bracing can assist with more severe cases
Must see GP for review and Hip x-ray
Referral to orthopaedic specialise
Severs Lesion |
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Most common cause of heel pain in 10-14 year olds, particularly during growth spurts
pain/TOP in the calcaneus/achilles insertion which is activity related
Common in sports that involve running and jumping
Clinical signs:
overuse/gradual onset
Positive squeeze test
TOp achilles insertion into calcaneus
restricted/decreased ankle DF ROM (knee to wall less than 10cm)
Tight gastroc/soleus
May have visible bump in advanced stages over insertion of achilles into calcaneus
Treatment
Relative rest, avoid aggravating these activities prior to symptom onset
Ice
Calf stretches/massage/foam roller
Heel wedges/silicone heel cups
Calf strengthening
Orthotics if presenting with biomechanical abnormalities
Gp review -X-ray
Osteochondritis Dessicans |
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Bone and associated cartilage lose blood supply
Can be insidious onset or following trauma
Common at knee and elbow
Boys 9-18 most common
Symptoms include:
Localised joint pain
Stiffness
Locking of the joint
Swelling
If suspected, requires orthopaedic review for assessment and imaging
“Little league shoulder” |
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Traction stress at humeral physis
Commonly affects 11-13 year olds
Symptoms include pain in shoulder during and/or after throwing
May have loss of shoulder ROM
TOP humeral Physis
Rest for 8-12 weeks
Must be symptom free before loading
RC strengthening/ROM
prevention/pre season conditioning
Part time graded throwing program monitor symptoms during and after
“Little League Elbow |
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Acceleration phase of throwing
Repetitive valgus overload
Traction injury of MCL (anterior band)
Medial epicondyle apophysitis
Common symptoms:
Pain
Loss of elbow ROM
Localised medial elbow pain, esp over medial epicondyle - reproduced with valgus stress test?
Swelling
Needs XR
High frequency of Rotator cuff tears in acute onset shoulder pain
Many elderly patients have a rotator cuiff tear but are asymptomatic
Any falls - must assume fracture until proven otherwise
Gp/hospital review ASAP
High frequency of wrist/hip fractures - often require surgical intervention
Need to consider underlying bone density problems/osteoporosis
Good research behind effectiveness of falls prevention programs in the elderly
Osteoarthritis
One of the most common underlying causes of insidious onset pain in older patients
Most common areas found include the spine, hips and knees
Generally respond well to heat, mobility (low impact exercise) strengthening and stretching of the affected area(s)
CONCUSSION
Concussion - impaired consciousness less than 1 hr, no neuronal damage
Contusio cerebri - impaired consciousness over 1 hour, substantial brain damage.
Second trauma to brain without prior full reconstitution of first one
Children and young adults particularly prone
Neurological symptoms
Pain
Balance problems’
Psychological and psychosocial problems
Decrease in symptoms
40-50% remain over first weeks
30% over first months
15-120% over first year