Elbow Dislocation Reduction Technique
For a dislocated elbow, perform closed reduction using traction-countertraction technique under procedural sedation, followed by immediate active range of motion without immobilization to optimize functional outcomes.
Pre-Reduction Assessment
Imaging
- Obtain plain radiographs first to confirm dislocation and identify associated fractures 1
- Standard AP and lateral views are sufficient for initial assessment
- Post-reduction radiographs are mandatory to confirm adequate reduction and rule out occult fractures
Neurovascular Examination
- Document median, radial, and ulnar nerve function before reduction
- Assess brachial artery pulse and capillary refill
- Median nerve injury is common and typically resolves after reduction 2
Analgesia and Sedation
Use procedural sedation and analgesia (PSA) for reduction 3. While intra-articular anesthesia has been studied for shoulder dislocations, the standard for elbow reduction remains PSA, which provides:
- Adequate muscle relaxation for successful reduction
- Patient comfort during manipulation
- Ability to assess stability post-reduction
Reduction Technique
Traction-Countertraction Method (Primary Technique)
This is the most commonly employed and successful approach 3:
- Patient positioning: Supine on stretcher
- Assistant provides countertraction: Grasps upper arm proximal to elbow
- Physician applies steady longitudinal traction: Pull on forearm with elbow in slight flexion (20-30 degrees)
- Gentle anterior pressure on olecranon while maintaining traction
- Avoid hyperextension during reduction maneuver
Alternative Techniques if Initial Attempt Fails 3:
- Patient-assisted countertraction: Patient's body weight provides countertraction
- Leverage approach: Using physician's hands as fulcrum
- Modified Stimson technique: Prone positioning with hanging weight
Common pitfall: Attempting reduction with inadequate sedation leads to muscle spasm and failed reduction attempts.
Post-Reduction Management
Immediate Post-Reduction Care
- Confirm reduction with radiographs 1, 2
- Reassess neurovascular status
- Test stability under fluoroscopy if available to guide treatment 1:
- <10° joint widening = slight instability (conservative treatment)
10° widening = moderate instability (may need surgical consultation)
- Frank redislocation = gross instability (requires surgical fixation)
Immobilization Strategy
The evidence strongly favors early mobilization over prolonged immobilization 4, 5, 6:
- No immobilization or minimal splinting (0-3 days maximum) for simple dislocations
- Begin immediate active range of motion under supervision 4
- This approach achieves:
- Final range of motion within 19 days on average
- Extension within 5° of contralateral side
- Excellent functional outcomes 4
Avoid prolonged immobilization (>1 week), which increases risk of:
- Elbow stiffness
- Delayed return to function
- Heterotopic ossification 6
Rehabilitation Protocol 4
- Start active ROM immediately (within 24-48 hours)
- No slings or splints after initial 1-3 days
- Close supervision during early mobilization phase
- Avoid passive stretching initially
- Progress to strengthening at 2-3 weeks
Complications to Monitor
- Recurrent instability: Rare in simple dislocations (<5%) 5
- Persistent stiffness: More common with delayed mobilization
- Heterotopic ossification: Risk increases with prolonged immobilization 2, 6
- Nerve injury: Usually resolves spontaneously after reduction 2
- Associated fractures: Coronoid, radial head, or olecranon fractures may require surgical intervention 1, 2
When to Consider Surgical Referral
- Gross instability on stress testing (frank redislocation) 1
- Complex dislocations with significant fracture fragments 2
- Persistent instability after 2-3 weeks of conservative treatment 5
- Irreducible dislocation after multiple closed attempts
Critical distinction: Simple elbow dislocations (no significant fractures) have excellent outcomes with closed reduction and immediate mobilization 5, 6. Complex dislocations with fractures frequently require surgical intervention for optimal stability 2.