Shoulder exam: A complete clinical guide for practitioners

Key Takeaways

A shoulder exam follows five sequential components: history, inspection, palpation, range of motion, and special tests. Each step narrows the differential diagnosis before imaging is ordered.

Special orthopedic tests should be interpreted with their sensitivity and specificity in mind; no single test confirms a diagnosis on its own.

Normal shoulder ROM benchmarks are flexion 180°, abduction 180°, external rotation 0-90°, and internal rotation 0-70° – significant restriction in all planes suggests adhesive capsulitis.

Pabau’s digital forms and AI-assisted clinical notes help musculoskeletal clinicians capture structured shoulder exam findings and trigger appropriate referral workflows.

Shoulder impingement accounts for 44-65% of shoulder pain complaints seen in general practice, according to the NIH’s published clinical assessment review. Roughly 1% of adults over 45 present to their primary care physician with shoulder pain each year.

Most of those presentations involve the rotator cuff, subacromial space, or glenohumeral joint, structures that respond very differently to treatment. Getting that distinction right starts with a thorough shoulder exam, not an MRI request.

This guide covers the systematic shoulder exam from history to documentation. It covers the exact sequence, key palpation landmarks, normal ROM values, and which special tests carry the strongest diagnostic accuracy for common pathologies.

It is written for musculoskeletal clinicians, physical therapists, sports medicine practitioners, and orthopedic surgeons who need a reliable clinical reference for day-to-day practice and teaching. For clinical documentation compliance, capturing structured exam data consistently matters as much as the examination itself.

What is a shoulder exam and what does it assess?

A shoulder exam is a structured physical assessment of the shoulder joint complex. It is designed to identify the underlying source of pain, instability, weakness, or restricted movement. It evaluates the glenohumeral joint, acromioclavicular joint, sternoclavicular joint, rotator cuff musculature, biceps tendon, and supporting neurovascular structures.

A systematic shoulder exam helps differentiate several conditions. These include impingement syndrome, full-thickness rotator cuff tears, glenohumeral instability, SLAP lesions, AC joint pathology, adhesive capsulitis, and biceps tendinopathy. No single test diagnoses any of these in isolation. The examination works as a cumulative clinical picture, with each step informing the next.

The five core components, performed in sequence, are:

1. History
2. Inspection
3. Palpation
4. Range of motion and strength testing
5. Special orthopedic tests

Taking a shoulder history before the shoulder exam

History dictates which parts of the physical examination you emphasize. A 28-year-old rugby player with acute anterior pain after a tackle needs a different exam focus. A 62-year-old administrator whose shoulder has stiffened progressively over six months needs another.

Collect these components systematically before touching the shoulder:

• Onset and mechanism: acute trauma, repetitive overhead loading, or insidious onset
• Pain location and radiation: anterior (biceps/impingement), lateral (rotator cuff), posterior (labrum/SLAP), or radiating into the arm (cervical referral)
• Aggravating and relieving factors: overhead activity, lying on the shoulder, reaching behind the back
• Functional limitation: inability to raise the arm, difficulty with overhead sport or work tasks
• Red flags: unexplained weight loss, fever, night sweats, history of malignancy, bilateral symptoms (consider cervical myelopathy)
• Relevant history: previous shoulder surgery, recurrent dislocations, steroid injections, cervical spine problems

Red flags warrant urgent referral regardless of physical findings. Rule them out before proceeding.

Step 1: Inspection during the shoulder exam

Expose both shoulders fully and observe from three positions: anterior, posterior, and lateral. Look for asymmetry before palpating bony landmarks and soft tissue. Using structured clinical assessment tools to record findings consistently prevents missed findings across repeated consultations.

Key inspection findings and their clinical significance:

• Muscle wasting: supraspinatus or infraspinatus fossa wasting suggests rotator cuff atrophy or suprascapular nerve injury; deltoid wasting follows axillary nerve palsy
• Asymmetry: high-riding clavicle on the affected side suggests AC joint disruption
• Scapular winging: medial winging (serratus anterior weakness, long thoracic nerve palsy) or lateral winging (trapezius weakness, accessory nerve palsy)
• Swelling or deformity: AC joint step deformity, posterior shoulder prominence in anterior dislocation
• Skin changes: bruising after acute trauma, erythema over the AC joint in inflammatory arthritis

Observe the patient undressing if possible. Substitution patterns during arm elevation are often visible before formal ROM testing begins.

Step 2: Palpation of bony landmarks and soft tissues

Palpate systematically from medial to lateral, comparing sides throughout. Point tenderness localizes the lesion before special tests confirm it.

Follow this palpation sequence:

1. Sternoclavicular joint: tenderness here suggests SC joint pathology or referred pain from the acromioclavicular joint
2. Clavicle: palpate along its length for fracture or post-traumatic deformity
3. Acromioclavicular joint: located at the lateral end of the clavicle; focal tenderness is highly specific for AC joint pathology
4. Acromion and subacromial space: anterior and lateral tenderness here indicates subacromial bursal irritation or impingement
5. Greater tuberosity: the insertion point of the supraspinatus; tenderness here with internal rotation suggests rotator cuff tendinopathy or partial tear
6. Bicipital groove: palpated with the arm in 10° of internal rotation; tenderness suggests biceps tendinopathy
7. Posterior joint line: assessed for posterior capsular tightness or posterior labral pathology

One consistent clinical tip: rotate the arm passively while palpating the greater tuberosity. The tuberosity moves anteriorly with internal rotation, bringing different insertion zones of the rotator cuff under your finger and improving localization of the lesion.

Step 3: Shoulder range of motion exam

Assess active ROM first, then passive. Active motion tests muscle integrity and willingness to move. Passive motion isolates joint mechanics from muscle function. The finding of reduced active with preserved passive ROM points toward a motor deficit (rotator cuff tear, nerve injury). Global restriction of both active and passive motion across all planes is the hallmark of adhesive capsulitis.

Compare against established normal values, noting that individual variation is significant and bilateral comparison matters more than absolute degrees for most clinical decisions. The AAOS reference values below are widely used:

Document the painful arc carefully. A painful arc from 60° to 120° of abduction that resolves above 120° is a classic impingement pattern. Pain at end-range abduction only (near 180°) points more toward AC joint involvement.

Step 4: Shoulder strength testing

Grade each movement on the Medical Research Council (MRC) scale (0-5), always comparing bilaterally. Rotator cuff muscles are tested individually to localize weakness to a specific muscle group. Clinicians using physical therapy EMR platforms benefit from templated strength grading fields that make bilateral comparison quick to document.

Test each muscle as follows:

• Supraspinatus (abduction in the scapular plane): resisted abduction at 0° and at 90° in the scapular plane
• Infraspinatus and teres minor (external rotation): resisted external rotation with the elbow at 90°, arm at the side
• Subscapularis (internal rotation): tested with the lift-off test or belly-press test
• Deltoid (abduction): resisted abduction above 90° isolates deltoid from rotator cuff
• Biceps (elbow flexion and supination): weakness or pain with resisted supination supports biceps tendinopathy

Side-to-side comparison matters more than absolute MRC grade for most shoulder pathology. A grade 4/5 bilaterally may be normal for an older patient; asymmetric grade 4 vs 5 in an athlete is clinically significant.

Special tests in the shoulder exam: Categories and diagnostic accuracy

Special tests extend the shoulder exam beyond baseline assessment to target specific anatomical structures. No single test has sufficient sensitivity and specificity to confirm a diagnosis independently.

The American Academy of Family Physicians’ clinical evaluation framework recommends using clusters of tests alongside history and imaging to guide decision-making. Clinicians working in sports medicine software environments benefit from pre-built test documentation templates that capture findings consistently across practitioners.

Rotator cuff special tests

Three tests reliably assess rotator cuff integrity. The empty can test (Jobe test) isolates the supraspinatus. The arm is positioned at 90° abduction in the scapular plane with maximum internal rotation, thumb pointing down.

The examiner applies downward resistance. Pain or weakness constitutes a positive result. Its sensitivity is approximately 81% and specificity 89% for supraspinatus pathology, according to the NIH’s clinical shoulder assessment review.

The drop arm test is performed by passively abducting the arm to 90°, then asking the patient to lower it slowly. Inability to control the descent, or sudden dropping of the arm, is a positive result. It is poorly sensitive (around 21%) but highly specific (approximately 92%) for full-thickness tears, making it most useful when positive rather than when negative.

The external rotation lag sign is performed with the elbow at 90° and the shoulder at 20° abduction and near maximum passive external rotation. When released, an inability to maintain the position (the arm drops into internal rotation) is a positive lag sign, suggesting infraspinatus or teres minor insufficiency.

Impingement tests

Neer’s test is performed by stabilising the scapula and passively forward-flexing the arm with the elbow extended and forearm pronated. Pain reproduced in the subacromial region is a positive Neer sign. Sensitivity is approximately 72% and specificity 60% for subacromial impingement – useful as a screening test but insufficient alone for diagnosis.

The Hawkins-Kennedy test positions the arm at 90° flexion with the elbow bent, then passively internally rotates the shoulder. This compresses the supraspinatus tendon against the coracoacromial arch.

Its sensitivity is approximately 79%, higher than Neer’s, but specificity is lower (59%), so a positive Hawkins-Kennedy result requires clinical corroboration. Taken together, both tests positive in the same patient substantially raises the clinical probability of impingement.

Shoulder instability tests

The anterior apprehension test assesses glenohumeral instability. With the patient supine or seated, the shoulder is placed at 90° abduction and progressively externally rotated. A sense of apprehension (not just pain) from the patient is a positive result, indicating anterior instability.

The relocation test follows: applying a posteriorly directed force to the humeral head with the shoulder in the same position. If the apprehension resolves, this confirms the diagnosis of anterior glenohumeral instability.

Pain alone without apprehension during these tests suggests posterior impingement rather than instability. This distinction is clinically important and changes management significantly.

AC joint and biceps tendon tests

The scarf test (cross-body adduction test) involves adducting the patient’s arm across the body toward the opposite shoulder. Pain localized to the AC joint is a positive result. Its specificity for AC joint pathology is higher than its sensitivity. A positive scarf test combined with focal AC joint tenderness on palpation provides strong clinical evidence of AC joint disease.

For biceps tendon pathology, two tests reproduce pain in the bicipital groove when positive. Speed’s test uses resisted shoulder flexion with the elbow extended and forearm supinated. Yergason’s test uses resisted supination with the elbow at 90°. Neither achieves strong diagnostic accuracy in isolation; they are most useful for confirming a clinical suspicion raised by palpation tenderness.

SLAP and labral tests

O’Brien’s active compression test is the most commonly used test for SLAP lesions. The arm is positioned at 90° forward flexion, 10-15° horizontal adduction, and full internal rotation (thumb down).

The examiner applies a downward force, and the test is then repeated in external rotation (palm up). A positive result is pain or clicking that is worse in the internally rotated position and reduced or eliminated in the externally rotated position.

When pain is deep within the joint rather than at the AC joint, SLAP pathology is more likely. The physical therapy rehabilitation protocols for SLAP tears differ significantly from impingement management, reinforcing the importance of accurate test interpretation before referral.

Source: NIH PMC Clinical Assessment of the Shoulder (PMC3785041); AAFP American Family Physician 2000. Sensitivity and specificity values represent published ranges; individual study results vary.

Neurological and neurovascular assessment

Cervical radiculopathy frequently mimics intrinsic shoulder pathology. A brief neurological screen is mandatory in any shoulder exam where pain radiates into the arm or where the history includes neck involvement. Clinicians in musculoskeletal practice software environments increasingly include automated prompts to complete neurological screening when certain symptoms are recorded in intake.

Screen the following dermatome and myotome levels:

• C5: sensation over lateral deltoid; deltoid and biceps strength (shoulder abduction, elbow flexion)
• C6: sensation over lateral forearm and thumb; wrist extension, biceps reflex
• C7: sensation over middle finger; triceps strength, triceps reflex, wrist flexion
• C8: sensation over medial forearm and little finger; finger flexion
• T1: sensation over medial upper arm; intrinsic hand muscle strength

Also assess the axillary nerve (sensation over the regimental badge area of the deltoid) and brachial plexus integrity following any acute trauma. Check radial pulse, capillary refill, and skin temperature bilaterally if vascular injury is possible after dislocation or significant trauma.

When to order imaging after a shoulder exam

Physical examination findings should direct imaging choice. Ordering plain X-ray as a default for every shoulder presentation does not improve diagnostic yield and delays targeted investigation. Using clinical decision rules for imaging in musculoskeletal practice is well-established in adjacent joints; similar structured thinking applies to the shoulder.

• Plain X-ray (AP, axillary lateral, outlet views): indicated for acute trauma, suspected fracture or dislocation, calcific tendinopathy, or AC joint degeneration. Also useful for surgical planning and to assess acromion morphology (Bigliani classification) in impingement.
• MRI: the investigation of choice for suspected full-thickness rotator cuff tears, SLAP lesions, labral pathology, and adhesive capsulitis not responding to conservative management. MR arthrogram improves sensitivity for partial-thickness tears and labral injuries.
• Ultrasound: cost-effective for dynamic assessment of rotator cuff integrity, biceps tendon, and subacromial bursa. Operator-dependent but widely available and useful for guiding injections.

A normal shoulder exam with full ROM and no positive special tests rarely warrants immediate imaging. Reassess after a structured physical therapy course if symptoms persist beyond 6-8 weeks without red flags.

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Documenting the shoulder exam in clinical practice

Clear, consistent documentation is where most shoulder exam workflows break down. Clinicians remember the findings; the problem is capturing them in a format that supports continuity of care, medicolegal protection, and meaningful outcome tracking.

A well-structured shoulder exam record should include:

• The specific tests performed and their results, positive or negative
• ROM measurements with bilateral comparison
• MRC strength grades per muscle group
• Any positive neurological findings
• The working diagnosis with differential

Guidance on safer clinical notes consistently highlights that vague entries like “shoulder examination performed, findings documented” create significant medicolegal risk.

Practice management software like Pabau offers digital intake and assessment forms that let musculoskeletal clinicians build custom shoulder exam templates. Each template captures every component of the exam in a standardized format. The platform’s AI-assisted clinical documentation then converts dictated or spoken exam findings into structured notes, cutting documentation time without losing clinical detail.

Structured patient records also let clinicians track ROM values and special test results over time. That makes it possible to monitor a patient’s response to treatment objectively across visits.

For teams using SOAP-format notes, resources covering SOAP note documentation frameworks provide a transferable structure that applies equally well to musculoskeletal shoulder assessments. The key is consistency.

A clinician who documents a shoulder exam the same way every time will spot meaningful change faster than one who records findings ad hoc. Reading about capturing clinical exam findings digitally can help practices design workflows that make thorough documentation the path of least resistance, not an additional burden.

Conclusion

A well-executed shoulder exam produces a working diagnosis in most presentations before imaging is even considered. The skill is in sequencing. History narrows the differential, and inspection and palpation localize the structure. ROM and strength testing quantify impairment, and targeted special tests confirm or rule out specific pathologies.

The documentation step matters as much as the examination itself. Pabau’s digital assessment templates and AI clinical notes let musculoskeletal teams build shoulder exam workflows that are fast, consistent, and audit-ready. To see how it works in practice, book a demo.

Continue your research

Need a structured framework for musculoskeletal clinical notes? Safer clinical notes covers the documentation principles that protect both patients and practitioners in orthopedic and musculoskeletal practice.

Working in physical therapy and need practice management tools? Physical therapy EMR explains how Pabau supports PT practices with structured assessment workflows and patient records.

Want to reduce documentation time without losing clinical detail? AI-assisted clinical documentation shows how Pabau Scribe, our AI scribe, converts spoken or dictated exam findings into structured clinical notes.

Frequently asked questions about the shoulder exam