Closed Reduction, Casting, and Traction Flashcards

1
Q

goals of reducing all displaced fractures (2)

A

minimize soft tissue trauma, provide patient comfort

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2
Q

ways to make splints respect soft tissues (2)

A

pad all bony prominences, allow for post injury swelling

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3
Q

basic principle to correct and reduce a fracture (2)

A

axial traction, reversal of mechanism of injury

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4
Q

parameters to restore with reduction (3)

A

length, rotation, angulation

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5
Q

which joints should be immobilizated in a closed reduction

A

joint above and below injury

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6
Q

minimum point-contact for stable closed reduction

A

3-point contact

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7
Q

which extremity is a “bulky” jones splint typically used for

A

lower extremity

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8
Q

what two slabs make up the “bulky” jones

A

posterior slab, u-shaped slab medial and lateral

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9
Q

how is the u-shaped slab applied in a “bulky” jones

A

applied from medial to lateral around the malleoli

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10
Q

which extremity and fracture location are sugar-tong splints used on

A

upper extremity distal forearm fractures

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11
Q

how is the u-shaped slab applied in a sugar-tong splint

A

applied to the volar and dorsal aspects of the forearm encircling the elbow

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12
Q

which fracture location are coaptations splints used on

A

humerus fractures

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13
Q

how is the u-shaped slab applied in a coaptation splint

A

applied to medial and lateral aspects of the arm encircling the elbow and overlapping the shoulder

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14
Q

casting goals (2)

A

semirigid immobilization, avoidance of pressure or skin complications

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15
Q

padding a cast things to know (4)

A

distal to proximal, 50% overlap, minimum 2 layers, extra padding for bony prominences

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16
Q

cold water effect on plaster

A

maximizes molding time

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17
Q

hot water effect on plaster

A

decreased molding time

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18
Q

danger with hot water-soaked plaster

A

burning the skin

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19
Q

preferred water temperature for plaster

A

room temperature

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20
Q

plaster width for thigh

A

6-inch

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21
Q

plaster width for leg

A

4- to 6-inch

22
Q

plaster width for arm

A

4- to 6-inch

23
Q

plaster width for forearm

A

2- to 4-inch

24
Q

fiberglass pro’s (2) and con (1)

A

more resistant to moisture (breakdown), 2-3x stronger for any given thickness, more difficult to mold

25
general ankle position in below knee cast (short leg cast)
neutral
26
knee position when applying short leg cast
flexion
27
action required when constructing a walking cast
build up plantar surface
28
preferred casting material for walking cast
fiberglass
29
general approach to above knee cast (long leg cast)
apply below the knee first
30
how to add rotational stability to long leg cast
mold supracondylar femur
31
distal volar extent of short and long arm casts
palmar crease
32
earliest pressure necrosis can occur after cast/splint application
2 hours
33
ways to treat/prevent tight cast or compartment syndrome (2)
uni/bivalving, cut cast padding
34
upper limit of plaster thickness to prevent thermal injury
10 ply
35
ankle position of function
neutral dorsiflexion
36
hand position of function (intrinsic plus)
mcp flexed (70-90 degrees) and ip joints in extension
37
maximum force applied with skin traction
10 lbs
38
bucks traction definition
soft dressing around calf and foot attached to weight off foot of bed
39
bucks traction maximum weight
7-10 lbs
40
patients at risk for skin complications from skin traction (2)
elderly and rheumatoid
41
weight limit for lower extremity skeletal traction
20% of body weight
42
local anesthesia trick with skeletal traction pin insertion
anesthetize the sensitive periosteum
43
pin options for skeletal traction
thin wire or steinmann pin (smooth or threaded)
44
general size of steinmann pin for skeletal traction
largest pin (5-6mm)
45
where is the pin placed with tibial skeletal traction
2cm posterior and 1cm distal to tibial tubercle
46
with tibial skeletal traction, in which direction is the pin drilled and why
lateral to medial to avoid common peroneal nerve
47
with femoral skeletal traction, in which direction is the pin drilled and why
medial to lateral to avoid neurovascular bundle
48
where is the pin placed with calcaneal skeletal traction
medial to lateral, 2 to 2.5cm posterior and inferior to medial malleolus
49
anterior halo pin sites
above eyebrow
50
posterior halo pin sites
superior and posterior to ear
51
structures to avoid with anterior halo pin sites (3)
supraorbital artery, nerve, sinus