3. Definition
A fracture is a partial or complete break in the
structural continuity of a bone with soft tissue
involvement.
4. Aetiology
1.Traumatic fractures
• Due to direct or indirect high force energy.
2.Stress fractures
• Due to repetitive normal stress to a normal bone leading to
fatigue and later fracture
3.Pathological fractures
• Due to an abnormality (disease) of the bone
• A trivial force applied to an abnormal bone leading to a
fracture
5. Classification of Fractures
1.Clinical classification
• Open and closed fractures
2.Anatomicla classification
• Location of fracture on a bone
3.Radiological classification
4.Special classification
6. 1. Clinical Classification
Closed (simple) fracture
no communication between fracture site and skin surface.
Open (compound) fracture
communication between fracture site and skin surface
Open fractures are classified by the Gustilo-Anderson’s
classification system
7. 2. Anatomical Classification
Diaphyseal fracture
shaft of long bones can be proximal, mid-shaft or distal third
Metaphyseal fracture
part of the distal or proximal fractures of shaft
Epiphyseal plate fracture
Fracture of epiphyseal plate, mostly in young as the
epiphysis is open and cartilaginous
Classified by the Salter-Harris
Condylar fractures
11. Special Classification
a) Gustilo - Anderson classification of open fractures:
Type I
Clean wound < 1cm diameter, simple #, no skin crushing. There is
mild contamination.
Type II
laceration > 1cm without significant soft tissue crushing, including
no flaps, degloving or contusion. Moderate contamination
Type III
wound > 10cm with severe contamination plus
extensive soft tissue injury. Also included are injuries older than 8
hours. It subdivided into 3 types:
12. Type IIIA
Adequate soft tissue coverage of the # despite high energy trauma or
extensive laceration or skin flaps.
No periosteal stripping
Type IIIB
Inadequate soft tissue coverage with periosteal stripping. Soft tissue
reconstruction is necessary.
Type IIIC
Any open # that is associated with neurovascular damage (arterial injury)
that requires repair
13. c) Salter- Harris classification of #s involving
epiphyseal plate:
Type I - The # line passes cleanly along the epiphyseal line. Tends to occur in
young children/babies and in pathological conditions e.g. spinal bifida or scurvy
Type II - The commonest type, in which the # line runs across the epiphyseal
line and then obliquely, shearing off a small triangle of metaphysis
Type III - The epiphysis may be split vertically and a fragment displaced along
the epiphyseal line
Type IV - The # extends through the epiphyseal line from the metaphysis into
the epiphysis. This type may interfere with growth because union may take
place across the growth plate
Type V - Severe crushing of the epiphysis may occur from longitudinal
compression and this is very likely to result in growth arrest and deformity
14. d) Gartilands’ classification of
supracondylar #:
Type 1 - Undisplaced #
Type 2 - Displaced # with intact posterior cortex
Type 3 - Complete displacement #
15. e) Garden classification of neck of femur #s:
Type1 - Incomplete or impacted fracture
Media trabecular intact and vascularity preserved
Type2 - Complete fracture without displacement
Trabecular aligned and vscularity preserved
Type3 - Complete fracture
Partial displacement of < 50% diameter with trabeculae unaligned
and damaged blood supply.
Fracture fragment in connected by posterior retinacular attachment
Type 4 - Complete fracture
Complete displacement without trabecular alignment
Vascular damage with ischemic
17. g) Weber classification of Ankle #s:
Type A - Below the syndesmosis
Type B - At the syndesmosis
Type C - Above the syndesmosis
18. Clinical Features
History
Circumstances surrounding the injury will help determine the
extent of damage and associated complication
Age and sex
Pain, swelling, loss of function and symptoms of associated
injuries
Hx of trauma or not
Past medical history (Previous injuries comorbidity)
Drug history
Gyn history
General medical history
19. Clinical Features
General signs
level of consciousness
signs haemorrhage or shock
Associated damage to brain, spinal cord or viscera.
look for swelling, bruising or lacerations
Deformity such as Angulation, rotation, displacement,
shortening
Inability to use limb
21. Bone Healing stages
Haematoma formation
tissue damage and bleeding.
Inflammation stage
inflammatory cells appear folloew bt granulation tissue
Callus formation
osteoblasts and osteoclasts appear leading to bone mineral deposited
(woven bone )
Consolidation
woven bone replaced by lamellar bone
Remodelling
new formed bone remodeled to resemble normal structure.(12-28
months)
25. Local Factors
Degree of local trauma
Degree of bone loss
Vascular injury
Type of bone fractured
Degree of immobilisation
Infection
Local pathological condition
26. Hormonal Influences On Bone Healing
Cortisone decreases by decreasing callus formation
Calcitoninincreases by unknown mechanism
TH/PTH increases by bone remodelling
Growth Hormone increases callus volume
Androgensincreases callus volume
27. Investigations
X-rays
1. Two views (AP & lateral)
2. Two joints (proximal and distal to #)
3. Two limbs (in children, epiphyses may confuse)
4. Two injuries (e.g. calcaneum vs pelvis/spine
5. Two occasions (repeat 10-14 days later)
28. Principles of Fracture Management
Resuscitation – ABC’s
Reduce (closed or open)
Hold (immobilise)
- continuous traction (skeletal vs skin)
- splintage –plaster of paris( P.O.P)
- functional bracing
- [ORIF]Open reduction and internal fixation
- external fixation
Exercise
Rehabilitate(preservation of function of the body part affected while the # is
uniting and restoration of function after the fracture has united)
29. Irrigation
Irrigation with normal saline or treated tap water for open
fractures
Type I – 3L ,Type II – 6L , Type III – 9L
Debridement
Meticulous excision of all dead and devitalised tissue
upon arival and “Second-look” debridement to be
routinely done after 48-72 hrs
Start with the skin followed by fat and fascia, muscle, bone and
others
Irrigation and Debridement
30. Closed Reduction Indications
Minimally displaced fractures
Most fractures in children
Fractures that are not unstable after reduction + can
be held in splint or cast
Unstable fractures prior to external or internal fixation
NOTE;A Degloving injury is an avulsion wound.
31. Internal Fixation Indications
Fractures that cannot be reduced except by operation
Inherently unstable fractures
Failure of conservative management
Pathological fractures
Multiple fractures
Fractures with nursing difficulties
NOTE;Peripheral aneurysm most commonly occurs in
the popliteal artery
32.
33. Broad spectrum antibiotics like 1st or 2nd generation
cephalosporins
Add an aminoglycoside for Type II or III
Add penicillin if a farmyard injury
48-72hrs post-injury and again for 48-72hrs each time
a procedure is done
Prolonged use of antibiotics is not necessary
Antibiotics
36. Clinical features of basal skull #s
Symptoms
Pain
Dizziness
Hx of amnesia (lucid interval)
Hx of loss of consciousness
Disorientation
Nausea
Seizures
Vomiting
Abnormal eye movements
Signs
Swelling
Tenderness
Bleeding from the skull
Hearing loss
CSF rhinorrhea
CSF otorrhea
Racoon eyes
Battles sign
37. SKELETAL TRACTION
1. Perkins traction
Is a type of skeletal traction with patient on Perkins
bed and doing Perkins exercises?
38. State of the leg during Perkins traction
a. Abducted = # of proximal 1/3rd of femur – to avoid
angulation after healing
b. Adducted/Straight = all other femur #
Apply 1/7 of body wt. (adults) and raise foot end of
bed by 4cm for each Kg
This prevents over- traction & hence non- unions
39. When applying Perkins traction.
Initially correct the shock if the pt. is in shock by giving
blood
Palpate the peripheral pulses
Initial X-ray, take A-P and lateral view and the hip.
Inset pin 2 cm distal to the tibial tuberosity
40. Apply wt. about 1/7 of the pts.’ wt.
Raise the bed by about 4cm for each kg.
Measure both the pts. legs from the anterior superior iliac
spine to the tip of medial malleoli to make sure they are
the same length.
If necessary adjust the traction wt. and elevation of the
foot end of the bed, so as to let the bony fragments
overlap by about 1cm
Check the leg length every day for the next 2 wks. and
adjust the wts appropriately. Then you can check length
every 2 wks.
41. Complications
(i) Early (during insertion) complication
- Damage to common peroneal nerve
causing foot drop
- Fat embolism
- # of Tibia at the site of insertion of the pin
- Soft tissue injury
- Hemorrhage
42. Late complication (during Traction)
Decubitus ulcers (Bed
sores)
Pin site infection-
osteomyelitis
Pin may become loose
Osteoporosis- bone
desorption to bed bound
Over traction – causing
non- union
Malunion
Delayed union
Joint stiffness (ankylosis)
Muscle disuse atrophy
DVT
Hypostatic pneumonia
Contractures
43. Advantages Perkins exercise
Increases blood supply
Promote healing
Controlled movement and compression of the bone
ends encourages union
Prevents muscle atrophy
Prevents knees joint stiffness and contractures
Prevents DVT, decubitus ulcers
Prevents hypostatic pneumonia
Encourages positive psychological effect on patient.
44. Indications
Undisplaced incomplete # of the neck of the femur.
All intertrochanteric fractures
All # of the shaft of the femur in pts. over 18, e.g.
overlapped, double, spiral, comminuted and open #s,
and # with severe STI.
Those supracondylar # in which the lower fragment
has not been too severely flexed by the contraction of
gastrocnemius
-All condylar # of the femur, except those in which a
condyle has rotated completely
45. Contraindications
-All complete # of the neck of the femur
-Displacement of the proximal femoral epiphysis
-Subtrochanteric # with severe flexion of the proximal
fragment
-Supracondylar # with marked flexion of the distal
fragment
-Displacement of the distal femoral epiphysis
46. -# of the condyles in which a fragment has rotated
completely
-All pts. under 18. Their epiphyses will not have
united and the pin may damage the epiphyseal plate.
-Arthritis of the knee, or a stiff knee from any cause,
which will make exercise impossible without moving
the fragments too much.
-Non-union in # treated by other methods.
47. Skin traction (1/10th of pts wt)
Indications
Extremes of age
Children between 3 to 18 years (longitudinal bone growth may
be arrest)
Old people- fragile bones
Those reacting to pin
Fixed flexion deformity
Fractures like
Shaft of femur #s
Intertrochanteric #s
Upper femoral epiphysis separation
An unstable hip after reduction of a dislocation
51. Gallows traction (Bryant)
When is it used and in who?
o Is a type of skin traction used in # of
shaft of femur in children <3 years and
weighing < 15kg
53. (b) Non- orthopedic
Perineal or gluteal burn
Perineal or gluteal abscesses
Hernias- obturator and umbilical
Rectal prolapse
Contractures
Scrotal swelling – congenital hydroceles
Non-thrombosed hemorrhoids
Spinal bifida
54. Advantages
Easy to nurse/apply
Non invasive
Prevent decubitus ulcers
Children don‘t find it distressing
Not expensive
Disadvantages
Wt. limitation
Ischemia if too tight
Stiffness and contractures formation