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Review Article
Published Online January 2009

Anterior Shoulder Dislocation

Publication: The Annals of The Royal College of Surgeons of England
Volume 91, Number 1



Anterior dislocation of the shoulder is commonly seen in accident and emergency (A&E) and trauma clinics. In this article, we review the existing literature on the injury and the recent trends in management.


We have discussed this condition with our colleagues and performed a Medline search (‘anterior shoulder dislocation’) of the relevant papers. We also describe key historical publications and recent developments regarding immobilisation of the joint.


Management decisions regarding this condition continue to vary between units, especially for recurrent and posterior dislocation. This paper lays some emphasis on the choice of analgesic agent when attempting shoulder reduction in the A&E setting. A summary of the data from our own department has provided a graphical representation of the classical age and sex distribution for this condition.


Shoulder dislocation is a common injury. Delays in diagnosis remain the single biggest obstacle to optimum results in this group of patients. A significant proportion will require eventual surgery and up to a third of these patients will go on to develop long-term shoulder arthritis. Even patients who have experienced a single episode of dislocation may go on to develop long-term sequelae.
The glenohumeral joint of the shoulder is the most commonly dislocated joint in the human body. Acute dislocation is a surgical emergency and demands urgent relocation. Failure to reduce a dislocated shoulder successfully within the first 24 hours carries the risk that it will be impossible to achieve a stable closed reduction.1
Broadly speaking, anterior shoulder dislocation shows a bimodal age distribution (Fig. 1). The first, and by far the largest group are young adult men who have sustained high-energy injuries to the shoulder. The second group are older patients who have been injured with a much lower level of violence. In older patients, the dislocation usually proves to be an isolated event. Management priorities in this second, older-age group include both early reduction and early mobilisation to avoid the risk of long-term stiffness.
Figure 1 An analysis of the age spectrum of patients admitted to Walsgrave A&E Department with shoulder dislocation over the last 3 years. The bulk of the patients are young adults. In spite of the depletion of the older cohort, there is an apparent second peak beyond the age of 60 years. Male patients clearly out-number women in the younger age group.
In the younger-age group, the risk of recurrence correlates strongly to the violence of the initial injury and the age of the patient at the time of presentation with the 16–30-year-old group being at particularly high risk.1 Management priorities in the younger-age group remain contentious with individual surgeons debating both the indications and timing of initial surgery.
In this paper we focus on traumatic anterior dislocation in the younger patient, reviewing the existing literature in the field and discussing current controversies on diagnosis and management of the condition.

The mechanism of anterior dislocation

Over 95% of glenohumeral dislocations are anterior. Violent external rotation in abduction levers the head of the humerus out of the glenoid socket, avulsing anterior bony and soft tissue structures in the process (the Bankart lesion).2 As the final, posterior part of the humeral head exits the joint, it often collides with the anterior rim of the glenoid, creating a bony indentation at the back of the humeral head (the Hill Sachs lesion).1,3


The experienced trauma physician can recognise an anterior shoulder dislocation at sight. The arm is usually held in an abducted and externally rotated position. There is loss of the normal contour of the deltoid and the acromion is prominent posteriorly and laterally. The humeral head itself may well be palpable anteriorly.
On more detailed examination, there may be specific damage to the bone, vascular and nervous structures of the region. It is important to record neurovascular status before reduction is attempted. In the longer term, injury to the rotator cuff may also emerge. Each of these defects will be considered in turn.

Bone injury

A plain anteroposterior X-ray is mandatory before attempting to reduce the shoulder, as an associated humeral fracture will make it both impossible and dangerous to manipulate the humeral head by holding the shaft. A second, axillary view confirms the diagnosis and determines the direction of dislocation.
In a large series of patients under the age of 40 years, Hovelius et al.1 reported that 54% of anterior dislocations were associated with a Hill Sachs lesion. The presence of a Hill Sachs lesion increases the risk of recurrent dislocation.
The presence of an associated greater tuberosity fracture is more common in the older patient. Sparks et al.4 have also reported a strong correlation between vascular injury in shoulder dislocation and a fracture of the greater tuberosity with only 1% of arterial injuries being associated with dislocation without fracture.

Vascular injury

Stayner et al.5 reported two cases of axillary artery injury in 95 cases of shoulder dislocation. Given that the shoulder is the most commonly dislocated joint in the body, this represents an extremely infrequent complication (1–2%) and demands considerable vigilance on the part of the physician to detect. The axillary artery has less elasticity in older patients who tend to suffer from atherosclerosis and vascular injury is more common in this group.8 It is particularly rare in the younger patient.
When axillary artery injury does occur, the pathognomonic triad consists of anterior shoulder dislocation, absent or diminished distal pulses and protruding axillary haematoma.7 However, the upper limb has an excellent collateral circulation and it is possible for a major arterial injury to co-exist with good peripheral capillary filling and a palpable radial pulse.7 Any suggestion of reduced pulse pressure and even transient coolness in the hand demands urgent angiography. Not all these cases are complicated by a formal intimal tear. Sparks et al.4 reported arterial spasm in 18 out of 30 cases of upper limb ischaemia after dislocation. Only angiography can distinguish transient spasm (which will resolve with conservative management) from a tear (which requires surgery).
When vascular injury is present, it is often further complicated by neurological injury.

Nerve injury

Peripheral nerve injuries following anterior dislocation are common,8 with about 10% patients suffering injury to the axillary nerve. More sensitive studies using electromyography have reported a much higher rate of injury than this.9
Brachial plexus injuries are more unusual with the site of the injury often being related to the position of the arm during dislocation.10 With the arm in full abduction and internal rotation there is tension on all major cords of the plexus. Extension of the elbow and wrist distracts the medial cord. With the elbow flexed, the posterior and medical cords are under tension.
The brachial plexus injury associated with shoulder dislocation are typically postganglionic, infraclavicular and in continuity. Since the injury is usually neuropraxia or axonotomesis, the prognosis is usually excellent.11,12
McManus13 was the first to comment on the association between greater tuberosity fracture, dislocation and brachial plexus injury. Volpin et al.14 described complete axillary artery and brachial plexus palsy in conjunction with shoulder dislocation.
Paley et al.15 reported a case of bilateral anterior shoulder dislocations associated with bilateral brachial plexus and axillary artery injury. Interestingly, this patient was 60 years old.

Rotator cuff tears

Between 14–65% of anterior dislocations are also associated with rotator cuff tears with the incidence of this complication again increasing in older patients. Many authors recommend ultrasound screening of patients with first-time dislocations over the age of 40 years.16

Reducing the dislocated joint: analgesia and sedation in the emergency situation

There is no consensus on the optimum technique for reduction of the dislocated shoulder. Success of any one technique is likely to be dependent on the familiarity of the surgeon and the choice of analgesia.17
Ideally, all dislocated joints would be reduced under general anaesthetic with adequate analgesia and muscle relaxation. In practise, most units attempt initial reduction in the accident and emergency department.
Controversy exists as to the optimum type of analgesia and anaesthesia to use in this environment. Using the Kocher manoeuvre, Uglow18 was able to perform a successful reduction in 80.9% of patients using Entonox alone and in 100% of those patients sedated intravenously. This study showed that, in clinical practise, the majority of relocations can be performed without the need for intravenous sedation.
In Australia, Taylor et al.19 compared the effectiveness of propofol to midazolam as a sedating agent for shoulder reduction. The authors concluded that propofol appeared to be as effective as midazolam/fentanyl and was associated with better muscle relaxation and fewer reduction manoeuvres. However, the advantage of shorter wakening times associated with propofol should be weighed against the possibility of adverse events, particularly respiratory depression and vomiting.
Working in the US, Rosnik et al.20 compared the effectiveness of reducing dislocated shoulders using intra-articular lidocaine versus intravenous analgesia and sedation. They concluded that intravenous agents are preferred by patients, and had marginally better success rates. An appreciation of the potential for intra-articular analgesia should exist in the emergency room staff for use in those cases where sedation would be considered risky.
In a similar study, Miller et al.21 found intra-articular local anaesthetic agent to be associated with significantly reduced time spent in the emergency room and dramatically reduced economic cost. The effectiveness of the reduction manoeuvre was equal in sedated and intra-articular local anaesthetic groups.
Gleeson et al.22 compared the use of supra-scapular nerve blocks with intra-articular lignocaine and concluded that intra-articular lidocaine was the technically easier procedure to perform and also more effective as a means of pain relief.
In a later paper, Gleeson et al.25 compared the effectiveness of Entonox to intra-articular local anaesthetic during shoulder reduction and concluded that Entonox alone was the more effective pain relieving agent of the two.

Post reduction management

After the dislocated shoulder has been reduced there is controversy as to how it should be managed. Traditionally, the shoulder has been immobilised in a sling in a position of internal rotation. However, during the last decade, this tradition has been challenged.
In 1996, Hovelius et al.1 described a large, 10-year follow-up study that appeared to suggest that the risk of re-dislocation was not influenced by the form of immobilisation used. Patients who were asked to wear a simple sling until they were comfortable had a similar long-term result to those treated with more formal immobilisation.
In 2001, Itoi et al.24 described a magnetic resonance imaging (MRI) study of dislocated shoulder patients showing that the separation of the torn labrum is significantly less in external rotation than in internal rotation. This suggested that immobilisation in a sling that held the arm in an externally rotated position would better approximate the Bankart lesion in the glenoid neck.
Then in 2003, Itoi and his collaborators25 published a second paper describing the actual clinical outcome of just such a policy. In a randomised, prospective study, a series of 40 patients were divided between internal rotation and external rotation groups. There was a 50% recurrence of dislocation in the internal rotation group versus 0% re-dislocation in the external rotation group.
However, these results were brought into question by a later cadaveric study showing that the force present at the site of the labral tear is minimum in neutral rotation and actually increases with external rotation.26.
In clinical practise, real patients find it difficult to function with their arm immobilised in external rotation and, whilst the Japanese work is interesting, this new policy has yet to achieve general acceptance.
If initial dislocation is followed by episodes of recurrent subluxation, then avoidance of high-risk activity and a programme of muscle strengthening may still be effective.
After the initial period of immobilisation, the patient begins supervised physiotherapy exercises to prevent glenohumeral joint contracture followed by dynamic exercises to develop dynamic stabilisers of the shoulder and improve proprioception in the joint.

Recurrent dislocation

Even with optimum management, many patients will go on to develop recurrent dislocation and these must be investigated and treated appropriately (Table 1).28
Table 1 Recurrent dislocation
Age at dislocation (years)Risk of recurrence
<20Up to 95% (66% Simonet)
<25<50% (Sinomet 40% of the 20–40 years old group)
>40<15% (0% Sinomet)
In their classic paper published in 1996, Hovelius et al.1 found that the risk of re-dislocation varied inversely with the age at the time of primary dislocation with over a third of patients under the age of 20 years requiring eventual surgery.
Simonet et al.,27 in 1984, described a similar recurrence rate. Both age and athletic activity were shown to be important to the risk of recurrence.
Patients who do not experience repeat dislocation may well suffer from recurrent subluxation of the joint that limits their overall activity levels.
The on-going high rate of recurrent shoulder dislocation, especially in the very young, athletic population, has led some surgeons to suggest that this group should be referred to a shoulder specialist for arthroscopic assessment at an early stage.

The pathology of recurrent dislocation

The problem of recurrent dislocation has long been recognised. During the 1930s,2,3 many workers pursued what was believed to be the essential lesion in recurrent shoulder dislocation. Then, in a landmark paper in 1938, the British surgeon Bankart2 described the lesion that still bears his name. Bankart's ‘essential lesion’ is an avulsion of labrum from the anterior inferior glenoid with an associated tear in the labrum. Bankart went on to describe his own operation for repairing the shoulder in recurrent dislocation.
Bankart's essential lesion remains the most commonly observed abnormality at shoulder arthroscopy. However, capsular laxity in the absence of a Bankart lesion is also well recognised.29
Modern biomechanical studies have demonstrated that the creation of a Bankart lesion in itself is insufficient to permit shoulder dislocation. More recent cadaveric, arthroscopic and MRI studies have shown that many patients have sustained injury to several structures in the shoulder. In particular, there has been recognition of the inferior glenohumeral ligament30 with more modern surgeons choosing to repair each of the damaged structures at the time of initial surgery.


In those patients who suffer recurrent dislocation, arthroscopic visualisation of the shoulder joint would now be regarded as the gold standard diagnostic technique. This procedure does, however, require a general anaesthetic, specialist equipment and a degree of technical skill. The procedure also carries a small risk of complications.
In recent years, the increasing availability of MRI scanning has offered an alternative non-invasive investigation for shoulder injury.31,32 Most modern shoulder surgeons would obtain an MBI of the joint before attempting definitive surgical repair. A pre-operative assessment of the degree of glenoid bone loss is particularly useful.
Unenhanced MRI scanning has an overall accuracy of 95% for glenoid injuries.33 Intra-articular gadolinium marginally improves accuracy.
Aliprandi et al.34 showed comparable results using computed tomography (CT) and MBI; CT is a viable alternative in patients in whom MBI is contra-indicated.

Surgical treatment of the initial anterior dislocation

Many surgeons prefer a minimal access approach to the injured shoulder.35 However, it should be remembered that this kind of arthroscopic shoulder repair requires expensive equipment and is technically demanding.
Whilst minimal access surgery is in vogue, some authors have questioned its efficacy. Freedman et al.36 published a meta-analysis comparing open Bankart repair with arthroscopic repair and concluded that arthroscopic repair is associated with a higher failure rate.
Early attempts at arthroscopic reconstruction relied heavily on staples but this resulted in a high complication rate and has been largely abandoned.37 Similarly, attempts to fix antero-inferior labral tears through any approach using bio-absorbable tacks have met with varying success.38
More recently, thermal capsular shrinkage has been used in an attempt to augment the stabilisation. Again, the results are variable. Chen et al.,39 in 2004, reported that arthroscopic thermal capsulorrhaphy made no difference to the outcome of arthroscopic labral repair with biodegradable tacks in patients with primary recurrent anterior shoulder instability.
D'Alessandro et al.40 also reported poor follow-up results from this technique. This non-randomised, prospective study evaluated the indications and results of thermal capsulorrhaphy in 84 shoulders with an average follow-up of 38 months. Results were classified as being unsatisfactory in 37% of cases. In a lengthy review article in 2004, Levine et al.41 concluded that the initial wave of enthusiasm for thermal capsulorrhaphy had subsided.
Complications of this technique include the obliteration or attenuation of capsular tissue, axillary nerve injury, and chondrolysis
Papers published in 2006 suggest that early arthroscopic results are comparable with those achieved using open surgery but data beyond 5 years have yet to emerge

Open surgical repair

Open surgical repair involves a substantial incision with slower recovery times than arthroscopic repair. Historically, the open repair has been associated with a 95% reduction in re-dislocation and it remains the gold standard treatment against which other results are measured.1 Early techniques reduced external rotation and the results were disabling for the performance athlete. Modern modifications permit repair of damaged tissue with less restriction of external rotation. Where bone has been lost from the glenoid, open surgery is essential.

Return to sport

In a systematic review of the literature, kuhn17 was unable to find any hard evidence to support any one programme of remobilisation. There is level 4 case series and level 5 expert opinion to suggest that a return to sport is permissible when range of motion and strength are near normal but recurrence is likely.

Long-term prognosis

In 1996, Hovelius et al.1 reported moderate or severe osteoarthritis in 8.7% of shoulders in patients who had sustained their first dislocation under the age of 40 years. These authors found that moderate-to-severe osteoarthritis occurred regardless of how the patient had been treated or whether recurrence had occurred.
In 2006, Ogawa et al.42 reported a high incidence of osteoarthritis in patients with traumatic anterior instability for whom surgery was planned. Plain X-ray in this series revealed osteoarthritis in 11% of cases whereas CT scan revealed osteoarthritis in 31% of cases. The ability of CT to detect osteoarthritic changes missed on plain X-ray suggests that some earlier studies may have underestimated the rate of post dislocation osteoarthritis.
It would appear that osteoarthritis is a common longterm sequela to anterior shoulder dislocation.

Muscle patterning

In recent years, there has been increased interest in the influence of muscle patterning on recurrent dislocation. Inappropriate recruitment of torque-producing muscles around the shoulder are believed to create uncontrolled movements at the glenohumeral joint. These patients have a muscle recruitment sequencing problem and rehabilitation is directed at normalising muscle patterning. Supporters of this concept believe that surgery should be delayed in these patients until the muscle patterning problem has been addressed by physiotherapy.43

The voluntary dislocator

A small proportion of patients are able to dislocate their shoulders at will. For some patients this is little more than a party trick and the shoulder can be similarly relocated by the patient. It is more common in the young and often associated with generalised ligamentous laxity. Surgery is to be avoided in this group.44


Shoulder dislocation is a common injury. Delays in diagnosis remain the single biggest obstacle to optimum results in this group of patients. A significant proportion will require eventual surgery and up to a third of these patients will go on to develop long-term shoulder arthritis. Even patients who have experienced a single episode of dislocation may go on to develop long-term sequelae.


Hovelius L, Augustini BG, Fredin H, Johansson O, Norlin R, Thorling J. Primary anterior dislocation of the shoulder in young patients. A ten-year prospective study. J Bone Joint Surg Am 1996; 78: 1677–84.
Bankart ASB. The pathology and treatment of recurrent dislocations of the shoulder joint. Br J Surg 1938; 26: 23–9.
Bost FC, Inman VC. The pathological changes in recurrent dislocation of the shoulder: a report of Bankart's operative procedure. J Bone Joint Surg Am 1942; 23: 596–613.
Sparks S, Delarosa J, Bergan J, Hoyt D, Owens E. Arterial injury in uncomplicated upper extremity dislocation. Ann Vasc Surg 2000; 14: 110–3.
Stayner L, Cummings J, Anderson J, Jobe C. Shoulder dislocation in patients older than 40 years of age. Orthop Clin North Am 2000; 31: 231–9.
Kelley SP, Hinsche AF, Hossain JFM. Axillary artery transaction following anterior shoulder dislocation: classical presentation and current concepts. Injury 2004; 35: 1128–32.
Maweja N, Sakalihasan N, Van Damme H, Limet R. Axillary artery injury secondary to anterior shoulder dislocation: report of 2 cases. Acta Chir Belg 2002; 102: 187–91.
Visser CPJ, Coene LN, Brand R, Tavy DL. The incidence of nerve injury in anterior dislocation of the shoulder and its influence on functional recovery. A prospective clinical and EMG study. J Bone Joint Surg Br 1999; 81: 679–85.
Blorn S, Dahback LO. Nerve injuries in dislocations of the shoulder joint and fractures of the neck of the humerus. Acta Chir Scand 1970; 136: 461–6.
Kleinrensink GJ. Influence of posture and motion on peripheral nerve tension 1997; RotterdamThesis.
Leffert RD, Seddon H. Infraclavicular brachial plexus injuries. J Bone Joint Surg Br 1965; 47: 9–22.
Gariepy R, Derome A, Laurin C. Brachial plexus paralysis following shoulder dislocations. Can J Surg 1962; 5: 418–21.
McManus F. Brachial plexus lesions complimentary anterior fracture-dislocation of the shoulder joint. Injury 1976; 8: 63–6.
Volpin G, Langer R, Stein H. Complete infraclavicular brachial plexus palsy with occlusion of axillary vessels following anterior dislocation of the shoulder joint. J Orthop Trauma 1990; 4: 121–3.
Paley D, Love TR, Malcolm BW. Bilateral anterior fracture dislocation of the shoulder with brachial plexus and axillary artery injury. Orthop Rev 1986; 15: 443–6.
Berbig R, Weishaupt D, Prim J, Shahin O. Primary anterior shoulder dislocation and rotator cuff tears. J Shoulder Elbow Surg 1999; 8: 220–5.
Kuhn JE. Treating the initial anterior shoulder dislocation an evidence based medicine approach. Sports Med Arthrosc 2006; 14: 192–8.
Uglow MG. Kocher's painless reduction of anterior dislocation of the shoulder: a prospective randomised trial. Injury 1998; 29: 135–7.
Taylor DM, O'Brien D, Ritchie P, Pasco J, Cameron PA. Propofol versus midazolam/fentanyl for reduction of anterior shoulder dislocation. Acad Emerg Med 2005; 12: 13–9.
Kosnik J, Shamsa F, Raphael E, Huang R, Malachias Z, Georgiadis GM. Anesthetic methods for reduction of acute shoulder dislocations: a prospective randomized study comparing intraarticular lidocaine with intravenous analgesia and sedation. Am J Emerg Med 1999; 17: 566–70.
Miller SL, Cleeman E, Auerbach J, Flatow EL. Comparison of intra-articular lidocaine and intravenous sedation for reduction of shoulder dislocations: a randomized, prospective study. J Bone Joint Surg Am 2002; 84: 2135–9.
Gleeson AP, Graham CA, Jones I, Beggs I, Nutton RW. Comparison of intra-articular lignocaine and a suprascapular nerve block for acute anterior shoulder dislocation. Injury 1997; 28: 141–2.
Gleeson AP, Graham CA, Meyer AD. Intra-articular lignocaine versus Entonox for reduction of acute anterior shoulder dislocation. Injury 1999; 30: 403–5.
Itoi E, Sashi R, Minagawa H, Shimizu T, Wakabayashi I, Sato K. Position of immobilisation after dislocation of glenohumeral joint. A study using magnetic resonance imaging. J Bone Joint Surg Am 2001; 83: 661–7.
Itoi E, Hatakeyama Y, Kido T, Sato T, Minagawa HWakabayashi I, et al. A new method of immobilisation after traumatic anterior dislocation of the shoulder: a preliminary study. J Shoulder Elbow Surg 2003; 12: 413–5.
Miller BS, Sonnabend DH, Hatrick C, O'Leary S, Goldberg JHarper W, et al. Should acute anterior dislocation of the shoulder be immobilised in external rotation? A cadaveric study. J Shoulder Elbow Surg 2004; 13: 589–92.
Simonet WT, Cofield RH. Prognosis in anterior shoulder dislocation. Am J Sports Med 1984; 12: 19–24.
Rowe CR. Prognosis in dislocations of the shoulder. J Bone Joint Surg Am 1956; 38: 957–77.
Hintermann B, Gachter A. Arthroscopic findings after shoulder dislocation. J Sports Med 1995; 23: 545–51.
Turkel SJ, Panio MW, Marshall JL, Girgis FG. Stabilizing mechanisms preventing anterior dislocation of the glenohumeral joint. J Bone Joint Surg Am 1981; 63: 1208–17.
Chandnani VP, Gagliardi JA, Murnane TG, Bradley YC, DeBerardino TASpaeth J, et al. Glenohumeral ligaments and shoulder capsular mechanism: evaluation with MR arthrography. Radiology 1995; 196: 27–32.
Beltran J, Rosenberg ZS, Chandnani VP, Cuomo F, Beltran S, Rokito A. Glenohumeral instability: evaluation with MR arthrography. Radiographics 1997; 17: 657–73.
Gusmer PB, Potter HG, Scatz JA, Wickiewica TL, Altchek DWO'Brien SJ, et al. Labral injuries: accuracy of detection with unenhanced MR imaging of the shoulder. Radiology 1996; 200: 519–24.
Aliprandi A, Fausto A, Quarenghi M, Modestino S, Randelli P, Sardanelli F. One shot CT and MR arthrography of the shoulder with a mixture of iodinated and paramagnetic contrast agents using arthroscopy as a gold standard. Radiol Med (Torino) 2006; 111: 53–60.
Wen DY. Current concepts in the treatment of anterior shoulder dislocations. J Emerg Med 1999; 17: 401–7.
Freedman KB, Smith AP, Romeo AA, Cole BJ, Bach BR. Open Bankart repair versus arthroscopic repair with trans-glenoid sutures or bioabsorbable tacks for recurrent anterior instability of the shoulder: a meta-analysis. Am J Sports Med 2004; 32: 1520–7.
Warner JJ, Miller MD, Marks P, Fu FH. Arthroscopic Bankart repair with the Suretac device. Part I: Clinical observations. Arthroscopy 1995; 11: 2–13.
Muller M, Kaab MJ, Villiger C, Holzach P. Osteolysis after open shoulder stabilization using a new bio-resorbable bone anchor: a prospective, non-randomized clinical trial. Injury 2002; 33(Suppl 2)B30–6.
Chen S, Haen PS, Walton J, Murrell GA. The effects of thermal capsular shrinkage on the outcomes of arthroscopic stabilization for primary anterior shoulder instability. Am J Sports Med 2005; 33: 705–11.
D'Alessandro DF, Bradley JP, Fleischli JE, Connor PM. Prospective evaluation of thermal capsulorrhaphy for shoulder instability: indications and results, twoto five-year follow-up. Am J Sports Med 2004; 32: 21–33.
Levine WN, Bigilani LU, Ahmad CS. Thermal capsulorrhaphy. Orthopedics 2004; 27: 823–6.
Ogawa K, Yoshida A, Ikegami H. Osteoarthritis in shoulders with traumatic anterior instability: pre-operative survey using radiography and computed tomography. J Shoulder Elbow Surg 2006; 15: 23–9.
Lewis A, Kitamauria T, Bayley JIL. The classification of shoulder instability: new light through old windows!Curr Orthop 2004; 18: 97–108.
Huber H, Berber C. Voluntary subluxation of the shoulders in children. A long term study of 36 shoulders. J Bone Joint Surg Br 1994; 76: 118–22.

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Published In

cover image The Annals of The Royal College of Surgeons of England
The Annals of The Royal College of Surgeons of England
Volume 91Number 1January 2009
Pages: 2 - 7
PubMed: 19126329


Published in print: January 2009
Published online: 11 March 2015


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  1. Anterior shoulder dislocation
  2. Management
  3. Analgesia



Steven Cutts
Department of Orthopaedics and Trauma Surgery, University Hospitals of Coventry and Warwickshire UK
Mark Prempeh
Department of Orthopaedics and Trauma Surgery, University Hospitals of Coventry and Warwickshire UK
Steven Drew
Department of Orthopaedics and Trauma Surgery, University Hospitals of Coventry and Warwickshire UK


Correspondence to Steven Cutts, 3 Watchets Green, Lyppard, Habington, Worcester WR4 ORT, UK E: [email protected]

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