Shoulder Arthroscopy in India and UAE | Complete Patient Guide

• ELIGIBLE PATIENTS (Indications):

• Rotator cuff tears: partial-thickness (>50% tendon depth, Ellman Grade II–III) or full-thickness tears confirmed on MRI, unresponsive to ≥3 months of structured conservative management (physiotherapy, NSAIDs, corticosteroid injection)

• Glenohumeral instability: recurrent anterior dislocation with Bankart lesion, posterior instability, multidirectional instability (MDI) with failed rehabilitation

• SLAP lesions (Type II–IV) causing persistent mechanical symptoms, particularly in overhead athletes and throwing athletes

• Shoulder impingement syndrome (subacromial, internal, or coracoid) refractory to conservative care

• Adhesive capsulitis (frozen shoulder) Stage II–III with significant range-of-motion deficit unresponsive to physiotherapy and hydrodilation

• Acromioclavicular joint pathology: AC joint osteoarthritis, distal clavicle osteolysis

• Biceps tendon pathology: LHBT tendinosis, partial tear, or instability at the bicipital groove

• Calcific tendinitis with large deposits (>1.5 cm) refractory to ultrasound-guided barbotage

• Glenohumeral osteoarthritis with loose bodies or chondral lesions amenable to arthroscopic débridement

• REQUIRED PRE-OPERATIVE DIAGNOSTICS:

• Plain radiographs: AP, Grashey (true AP), axillary lateral, and supraspinatus outlet views to assess acromion morphology (Bigliani Type I/II/III), calcific deposits, glenohumeral joint space, and glenoid bone loss

• 3-Tesla MRI (with or without intra-articular gadolinium arthrography for labral pathology): assessment of rotator cuff tear size, retraction (Patte classification), muscle belly fatty infiltration (Goutallier Grade 0–4), labral morphology, and capsular volume

• CT arthrogram: indicated when bony Bankart lesion or glenoid bone loss is suspected; quantification of glenoid bone deficit (>20–25% critical threshold requiring Latarjet procedure rather than arthroscopic Bankart repair)

• Diagnostic ultrasound: dynamic assessment of rotator cuff, bicipital groove, and AC joint

• Haematological panel: CBC, CMP, coagulation profile (PT/aPTT/INR), HbA1c (target <8% for elective surgery), and HIV/Hepatitis B/C serology

• Cardiopulmonary assessment: ECG, chest X-ray; echocardiography and pulmonary function testing as indicated by comorbidity burden

• VTE risk stratification: Caprini Risk Assessment Score; DVT prophylaxis protocol determined accordingly

• CONTRAINDICATIONS:

• Active local or systemic infection (absolute)

• Irreparable massive rotator cuff tear with advanced glenohumeral osteoarthritis (relative; may be better served by reverse total shoulder arthroplasty)

• Glenoid bone loss >25% without concomitant Latarjet/bony augmentation planning

• Uncontrolled coagulopathy or anticoagulation that cannot be safely bridged

• Severe cardiopulmonary disease precluding beach-chair or lateral decubitus positioning under general/regional anaesthesia

• Significant rotator cuff fatty infiltration (Goutallier Grade 3–4) with muscle atrophy (Thomazeau Grade 3), indicating poor biological repair potential

• Active malignancy involving the shoulder girdle

STANDARD ARTHROSCOPIC PROCEDURES:

1. Rotator Cuff Repair (Arthroscopic):

• Single-row repair: medial-row anchors only; suitable for small-to-medium tears (<3 cm) with good tissue quality; faster operative time

• Double-row repair: medial and lateral row anchors recreating the native footprint (15 × 12 mm supraspinatus insertion); biomechanically superior contact area and load-to-failure strength; preferred for medium-to-large tears (3–5 cm)

• Transosseous-equivalent (TOE) / Suture-bridge technique: medial knotless anchors with lateral suture tape bridging; maximises footprint compression and vascularity at the repair interface; current gold-standard construct for large and massive tears

• Bioinductive patches (e.g., Rotation Medical, InSpyre): collagen scaffold augmentation at the repair site to enhance tendon-to-bone healing biology in high-risk cases

• Superior Capsule Reconstruction (SCR): for irreparable supraspinatus tears, fascia lata autograft or acellular dermal allograft (GraftJacket) reconstructs the superior capsule, restoring glenohumeral joint compression and superior stability

2. Bankart / Labral Repair:

• Arthroscopic Bankart repair using biocomposite, all-suture, or bio-tenodesis anchors placed at the 3-, 4-, and 5-o'clock positions on the glenoid rim; restoration of labral height and concavity-compression mechanism

• Remplissage procedure (posterior capsulodesis with infraspinatus tenodesis into the Hill-Sachs defect): performed concomitantly when engaging Hill-Sachs lesion is present; reduces re-dislocation risk

• Open Latarjet coracoid transfer: indicated when glenoid bone loss exceeds 20–25%; performed as a hybrid or open procedure through GAF Healthcare's partner centers with dedicated shoulder reconstruction units

3. SLAP Repair / Biceps Management:

• Type II SLAP repair with suture anchors at the 12-o'clock position; type-specific anchor placement and capsular plication

• Biceps tenodesis (arthroscopic or mini-open subpectoral): preferred in patients >35–40 years with LHBT pathology; eliminates bicipital groove pain while preserving elbow flexion and supination strength; performed with interference screw or all-suture anchor fixation

• Biceps tenotomy: considered in elderly or low-demand patients; risk of 'Popeye' deformity discussed in informed consent

4. Subacromial Decompression & Acromioplasty:

• Arthroscopic bursectomy and acromioplasty converting Type II/III acromion to Type I morphology using a motorised burr; coracoacromial ligament release when indicated

• Ultrasound-guided or arthroscopic lavage and needling for calcific tendinitis

5. Capsular Release for Adhesive Capsulitis:

• Systematic 360-degree arthroscopic capsular release: rotator interval, anterior capsule, posterior capsule, and inferior axillary pouch; combined with manipulation under anaesthesia (MUA) when indicated

6. Advanced Technologies Available at GAF Partner Centers:

• 4K/UHD arthroscopic imaging systems (Arthrex, Karl Storz, Smith & Nephew)

• Radiofrequency ablation (Coblation) for precise soft-tissue management and haemostasis

• Computer-assisted navigation for anchor placement in complex instability cases (select centers)

• Intraoperative fluoroscopy and portable ultrasound for real-time anatomical guidance

• Platelet-Rich Plasma (PRP) augmentation at the repair site: biologically active growth factor concentrate applied to enhance tendon-to-bone healing; offered as adjunctive therapy at most GAF partner institutions

PRE-OPERATIVE PHASE (2–4 weeks before travel / Day -14 to Day -1):

Step 1 — Remote Medical Review (Before Travel):

Patients submit MRI reports, X-rays, clinical notes, and medical history to GAF Healthcare's triage team. A board-certified orthopedic shoulder surgeon at the chosen partner hospital conducts a virtual consultation (video call), reviews imaging, confirms diagnosis (e.g., rotator cuff tear grade, glenoid bone stock, Goutallier classification), and provides a surgical plan and fixed-cost estimate. Suitability for arthroscopy versus open/hybrid reconstruction is determined at this stage.

Step 2 — Pre-Admission Workup (Day -1 to Day 0 after arrival):

Patients arrive 1–2 days before surgery. A comprehensive pre-anaesthetic evaluation is conducted: blood panel (CBC, LFT, RFT, coagulation, HbA1c, serology), ECG, chest X-ray, and anaesthesia fitness assessment. Interscalene brachial plexus nerve block technique is planned. Patients receive VTE prophylaxis counselling and are prescribed low-molecular-weight heparin (LMWH, e.g., enoxaparin 40 mg) if Caprini score warrants.

INTRA-OPERATIVE PHASE (Day 1 — Surgery Day, Duration: 45 minutes to 3 hours depending on complexity):

Step 3 — Anaesthesia & Positioning:

Patient positioned in beach-chair (semi-Fowler) or lateral decubitus with traction device. Interscalene nerve block administered under ultrasound guidance (provides 12–18 hours of post-operative analgesia, minimising opioid requirement). General anaesthesia induced. Hypotensive anaesthesia (target MAP 55–65 mmHg) maintained to optimise field visualisation.

Step 4 — Portal Placement & Diagnostic Arthroscopy:

Standard posterior viewing portal established; anterior and lateral working portals created under direct visualisation. Systematic diagnostic survey of glenohumeral joint: articular cartilage, rotator cuff undersurface, biceps anchor (SLAP), labrum (360 degrees), glenohumeral ligaments, and synovium. Subacromial space entered for bursoscopy.

Step 5 — Surgical Repair:

Surgical pathology addressed per pre-operative plan (e.g., double-row TOE rotator cuff repair, Bankart repair with remplissage, or SLAP repair with biceps tenodesis). Anchor placement confirmed under direct arthroscopic and fluoroscopic visualisation. PRP augmentation applied at repair site if elected. Portals closed with absorbable sutures or Steri-Strips.

POST-OPERATIVE PHASE:

Step 6 — PACU & Ward (Day 1):

Post-anaesthesia care: vital sign monitoring, neurovascular assessment of the operative extremity, ice cryotherapy initiated. Shoulder immobilised in an UltraSling or Gunslinger abduction brace (typically 30–45 degrees of abduction for rotator cuff repairs to offload the supraspinatus repair). Oral analgesia multimodal protocol: celecoxib, paracetamol, pregabalin, with opioids reserved for breakthrough pain.

Step 7 — Discharge (Day 1–2):

Patient discharged to GAF Healthcare's coordinated recovery accommodation with written wound care instructions, brace protocol, and emergency contact. Wound reviewed at 48–72 hours.

Step 8 — Early Recovery (Weeks 1–2):

Pendulum (Codman) exercises initiated by Day 3–5 to prevent adhesion formation. Passive range-of-motion physiotherapy begins under guidance of the hospital's physiotherapist (or via GAF-coordinated in-country physiotherapy). Brace worn continuously except for hygiene and exercises. Sutures/clips removed at 10–14 days.

Step 9 — Intermediate Recovery & Fit-to-Fly Assessment (Weeks 2–6):

At 2 weeks: wound healed; surgeon clearance for short-haul flights (<4 hours) typically granted after clinical review, provided VTE prophylaxis is in place (LMWH or aspirin per protocol) and neurovascular status is normal. Active-assisted ROM commences.

At 4–6 weeks: long-haul intercontinental flight clearance typically granted; nerve block effects fully resolved; passive ROM approaching functional range. Active physiotherapy programme continues at patient's home country.

Step 10 — Full Recovery Milestones:

• Weeks 6–12: Active ROM exercises; progressive rotator cuff strengthening (theraband, closed-chain exercises)

• Months 3–4: Light occupational activity; return to recreational sport for non-contact activities

• Months 4–6: Progressive return to overhead sports, swimming, tennis (for labral/Bankart repairs)

• Months 6–9: Return to contact sports and throwing activities (SLAP/Bankart repairs); full unrestricted activity (rotator cuff repairs)

• Note: Biological tendon-to-bone healing follows a predictable sequence — fibrovascular scar (0–6 weeks), collagen maturation (6–12 weeks), and ligamentisation (3–6 months) — meaning protective precautions are maintained even when symptoms resolve early.