Deborah A. Schwartz, OTD, OTR/L, CHT Product and ... 4...Deborah A. Schwartz, OTD, OTR/L, CHT...
Transcript of Deborah A. Schwartz, OTD, OTR/L, CHT Product and ... 4...Deborah A. Schwartz, OTD, OTR/L, CHT...
Learning Objectives:
• Gain understanding of the indications, precautions and contraindications.
• Gain understanding of the evidence supporting static progressive splinting.
• Appreciate the mechanical principles.
• Appreciate the anatomical knowledge base.
• Learn some tips and tricks for splinting.
Definition:
“Splints that incorporate inelastic components to apply
torque to a joint to statically hold it in its end range
position in order to increase passive range of motion”
“creates static mobilizing force on segment, resulting in
passive motion of joint or successive joints”
Schultz- Johnson, K. (2002). Static progressive splinting.
Journal of Hand Therapy, 15, 163-178.
Static Progressive Splinting Dynamic Splinting
• Base
• Outrigger
• Static components for force application
Velcro, static line, screws
gears, turnbuckles
• Used to increase passive joint range
• Base
• Outrigger
• Dynamic components for force application
Rubber bands, elastic,
coils, springs
• Mobilize joints
•Bony Structures
•Nerve Pathways
•Arches
•Blood Supply
•Stages of Healing
Duncan, R. (1989). Basic Principles of Splinting
the Hand. Physical Therapy. 69(12);1104-1116.
The biologic rationale for using
splints to increase range of motion…..
peri-articular connective tissues
remodel over time in response
to the type and amount of physical
stress they receive…..
Brand, P. (1985).
Clinical Mechanics of the Hand. St Louis, MO:C.V. Mosby.
• Wider longer splints
distribute pressure better
• Flared edges cause less
pressure than straight
edges
• Avoid pressure on bony
prominences
• Allow full motion at non
involved joints
Colditz, J. C. (1983). Low profile dynamic
splinting of the injured hand. American Journal
of Occupational Therapy, 37(3) 182-188.
• Prevent distal migration
• Maintain proper angle
of pull
• Secure attachments
• Stabilize proximal
joints
Colditz, J. C. (1983). Low profile dynamic
splinting of the injured hand. American Journal of
Occupational Therapy, 37(3) 182-188.
• Low Load Prolonged Stress= LLPS
• 90° angle of pull.
• If angle is less than or greater than 90°, the force can damage the joint or the articular cartilage.
Colditz, J. C. (1983). Low profile dynamic splinting
of the injured hand. American Journal of
Occupational Therapy, 37(3) 182-188.
The amount of increase in passive range of motion
(PROM) at a stiff joint is proportional to the amount of
time the joint is held at its end range or
“TERT “ (Total End Range Time)
TERT = frequency x duration
Flowers. K., LaStayo, P. (1994). The effects of total end range
stress on increasing PROM. Journal of Hand Therapy, 7,
150- 157.
Questions
• What is the goal?
• What type of mobilization splinting?
• What structures are affected?
• What is the pathology?
• What are the precautions? • How can I measure progress?
• 20 degree increase in ROM- no splint
• 15 degree increase in ROM- static splint
• 10 degree increase in ROM- dynamic splint
• 5 degree increase in ROM- static progressive
splint
Flowers, K., (2002). A Proposed Decision Hierarchy for
Splinting the Stiff Joint, with and Emphasis on Force
Application Parameters.
Journal of Hand Therapy, 17(3), 158-162.
Quantifies the amount of torque forces required to gain
a certain amount of passive range of motion at a joint-
helps us decide which type of mobilization splint is needed.
Force Force
Degrees Degrees
Dynamic Serial Static Static Progressive
Force Elastic/ given force/ doesn’t hold tissue at max. length
Constant tension- end range position maintained
Constant tension- end range maintained-
Force Control Springs/ rubber bands deform over time- no one has control
Clinician has control
Clinician and / or patient have control
Proper tension: How much is correct amount?
Depends on:
• individual
• diagnosis
• severity of problem
• chronicity of problem
• degree of contracture
Duncan, R. (1989). Basic Principles of Splinting the
Hand. Physical Therapy. 69(12);1104- 1116.
Add splint to
interventions
If splint causes
increased pain,
Discontinue
splint use
If splint wear is
tolerated well
Reevaluate
ROM
No Change in
ROM
Reevaluate
TERT
If TERT is
maximum
Increase
intensity of
force
An Algorithm for Making Clinical Decisions For Patients with
Limited Range of Motion
McClure, P, Blackburn, L, Dusoid, C. (1994) The use of splints in the
treatment of joint stiffness: biologic rationale and an algorithm for making
clinical decisions. Physical Therapy, 74(12), 1101-7.
• Wearing schedule - frequency and duration
• Caregivers instructions / photos
• Care of splint
• Precautions
• How to know when splint
adjustments are necessary
• Takes advantage of small
• incremental changes in
• tissue length
• Splint design allows for
• small changes without
• remolding splint each time
• gains are accomplished.
Database Searches on:
Pub Med
Ovid, Google Scholar
OT Seeker
PEDro, EBSCO
Key Words: “splinting, dynamic splinting, static
progressive splinting, splinting the upper extremity,
splinting and hand therapy”
Glasgow et al looked at 43 patients and the use of splints to
correct joint contractures.
Group A- TERT of 6 hours per day
Group B- TERT of 6-12 hours per day
Patients included PIP and MCP contractures, and used both
dynamic and static progressive splints.
Overall conclusion favored longer TERT time for contracture
resolution.
Glasgow, C., Wilton, J., Tooth, L. (2003). Optimal Daily Total
End Range Time for Contracture Resolution in Hand Splinting.
Journal of Hand Therapy, 16, 207-218.
Nuismer et al looked at the use of Low Load Prolonged Stress
with neurologically involved and orthopedically involved
caseloads.
• Splint use 10 weeks (average)
• Improved function, ADL’s
• Improved range, comfort, ability to RTW, leisure
Nuismer, B. A., Ekes, A.M., Holm, M, B., (1997). The use of low
load prolonged stretch devices in rehabilitation programs in the
Pacific Northwest.
American Journal of Occupational Therapy, 51 (7), 538-543.
Doornberg et al conducted a study:
29 consecutive patients with elbow stiffness
• Increase of 51° elbow flexion
• Use of splints for average of 4 months
• ½ hour each direction, 3 x / day
Results in ROM pre-splinting versus post splinting show
statistically significant increases.
Doornberg, J.N., Ring, D., Jupiter, J.B. (2006). Static
progressive splinting for post traumatic elbow stiffness.
Journal of Orthopedic Trauma. 20 (6), 400-404.
Gelinas, Farber, Patterson and King looked at 22 patients:
• Average splint use- 15 hours / day
• Increased of 24 ° after an average use of 4.5 months.
• 11 patients regained functional arc (30-130°)
Gelinas, J.J, Faber, K.J., Patterson, S..D., King, G.J. W. (2000).
The effectiveness of turnbuckle splinting for elbow contractures.
Journal of Bone and Joint Surgery, 82-B(1), 74-78.
McGrath et al conducted a
clinical trial of 38 patients:
• Increased arc of motion
• Increased supination
• Increased patient satisfaction
McGrath, M. S., Bonutti, P. M., Marker, D. R., Johanssen, H. R.,
& Mont, M. A. (2009). Static progressive splinting for
restoration of rotational motion of the forearm.
Journal of Hand Therapy, 22(1), 3-9.
Lucado et al looked at static progressive splinting after distal
radius fractures.
• Increased supination (mean of 14.5°)
• Increased wrist extension (mean of 18.6°)
• Improved grip
• Improved DASH
Lucado, A.M., Zhongyu, L. Russell, G.B., Papadonikolakis, A.,
Ruch, D.S.(2008). Changes in impairment and function after
static progressive splinting for stiffness after distal radius
fracture. Journal of Hand Therapy, 21(4)319-325.
McGrath et al also looked at 47 patients with limitations of
wrist motion.
Patients wore a SPS wrist splint for an average of 3
hours per day for ten weeks.
Average gains were an increase of 35 degrees of total arc of
motion.
Patient satisfaction scores were on average 8.2 out of 10.
McGrath, M.S., Ulrich, S.D., Bonutti, P.M., Smith, J.M., Seyler,
T.M., Mont, M.A. (2008). Evaluation of static progressive
stretch for the treatment of wrist stiffness.
Journal of Hand Surgery, 33A, 1498-1504.
Michlovitz et al conducted a systematic
review of treatments to improve range
of motion.
9 studies on splinting- 8 case series & 1 RCT
• Static progressive splinting
• Dynamic splinting
• Serial casting
Michlovitz, S., Harris, B.A., Watkins, M.P. (2004). Therapy
interventions for improving joint range of motions:
a systematic review. Journal of Hand
Therapy, 17(2), 401-406.
Farmer and James conducted a systematic
review of all treatments for contractures,
• Passive stretching
• Serial casting
• Splinting (Dynamic and Static Progressive)
• E-stimulation
• Surgery
• Botox
Farmer, SE., James, M. (2001). Contractures in orthopaedic and
neurological conditions; a review of causes and treatment.
Disability and Rehabilitation. 23(13); 549-558.
The hand based SPS orthosis:
• Maintains MCP joint
in extension
• Pulls PIP and DIP into
flexion
• Needs pulley to direct
angle of pull
Orfit Colors NS 1/12” is a lightweight, conforming elastic based
product, perfect for circumferential and hand based orthoses.
• Brand PW. (1995). Mechanical factors in joint stiffness and
tissue growth. Journal of Hand Therapy, 91-96.
• Colditz J. (1983). Low profile dynamic splinting of the
injured hand. American Journal of Occupational Therapy, 37
(3) 182-188.
• Duncan R. (1989). Basic principles of splinting. Physical
Therapy. 69 (12); 1104-1116.
• Flowers K. (2002). A proposed decision hierarchy for
splinting the stiff joint, with an emphasis on force application
parameters. Journal of Hand Therapy, 158-162.
• Flowers K, LaStayo P. (1994). Effect of total end range
time on improving passive range of motion. Journal of Hand
Therapy, 150–7.
•Glasgow C, Wilton J, Tooth L. (2003). Optimal daily total
end range time for contracture: resolution in hand splinting.
Journal of Hand Therapy. 16,207-218.
•Guyatt G, Rennie D, Meade M, Cook, D. ( 2002). Users
guides to the
medical literature: essentials of evidence based clinical
practice. 2nd Edition. JAMA. McGraw Hill; New York.
•Lucado, A.M., Zhongyu, L. Russell, et al. (2008). Changes in
impairment and function after static progressive splinting for
stiffness after distal radius fracture. Journal of Hand Therapy.
21,319–25.
• McClure, P.W., Blackburn, L.G., Dusoid, C. (1994). The use
of splints in the treatment of joint stiffness: biologic rationale
and an algorithm for making splints. Physical Therapy.
74,1101-1107.
• Nuismer, B.A., Ekes, A.M., Holm, M.B. (1997). The use of
low load prolonged stretch in rehabilitation programs in the
Pacific Northwest. American Journal of Occupational
Therapy, 538-543.
• Schanzer D. Static progressive end range proximal inter-
phalangeal / distal inter-phalangeal flexion splint. Journal of
Hand Therapy. 2000, 13 (4): 310.
• Schwartz, D. A., Janssen, R. G. (2007). Static progressive
splint for composite flexion. Journal of Hand Therapy. 2005,
447-450.
Schwartz DA. (2012). Thermoplastic Hinges: Eliminating the
Need for Rivets in Mobilization Orthoses. Journal of Hand
Therapy. 335-340.
Schwartz DA. (2011). Static progressive orthoses for the upper
extremity: a comprehensive literature review. Hand, March
2012. 7 (1); 10-17.
Schwartz, DA. (2010). Reflections on practice: static
progressive splints. ADVANCE for Occupational Therapy
Practitioners, June 7; 29.
• Schulz- Johnson, K. (2002). Static progressive splinting.
Journal of Hand Therapy. 15,163–178.
• Sueoko et al. Static Progressive Splinting in under 25 Minutes
and $25. Journal of Hand Therapy, February, 2011.