This page lists the orthopedics hospitals in our directory offering Osteotomy in Dubai, UAE, including Burjeel Hospital for Advanced Surgery Dubai, Kings College Hospital Dubai, Aster Hospital Dubai. Each listing links through to the hospital's full profile page.
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Compare 3 accredited hospitals for Orthopedics in Dubai, UAE
Featured🇦🇪 Burjeel Hospital for Advanced Surgery Dubai
Ranks #1 in this list by listed rating (4.5/5 from 1 reviews).
🇦🇪 Kings College Hospital Dubai
Ranks #2 in this list by listed rating (4.5/5 from 1 reviews).
🇦🇪 Aster Hospital Dubai
Ranks #3 in this list by listed rating (4.5/5 from 1 reviews).
How we selected these hospitals
A hospital appears on this page when Orthopedics is among its listed specialties and it is located in Dubai, UAE. Hospitals are not ranked by a proprietary "best" score — the order follows the listed rating (highest first), the same field shown on each hospital's profile.
How to Select the Best Hospital for Osteotomy in Dubai, UAE?
Choosing the right hospital for osteotomy is one of the most important decisions in your treatment journey. A few factors are worth weighing before you decide:
International Accreditation
Look for a hospital with international accreditation such as JCI or NABH — see the accreditation badges shown for each hospital below.
Specialization
Check that the hospital's listed specialties actually include orthopedics rather than only general care.
Capacity and Track Record
Bed count and year established (shown below for each hospital) are a reasonable proxy for scale and operating experience.
Transparent Costs
Ask for an itemised, all-inclusive estimate — hospital charges, room category and stay — before you travel. Our cost calculator (linked below) gives a starting estimate.
Understanding Osteotomy
Osteotomy surgery is a bone-realignment procedure in which a surgeon precisely cuts and repositions one or more bones to correct deformity, redistribute joint load, and delay or eliminate the need for total joint replacement; published literature reports functional success rates of 80–90% at 10-year follow-up when patient selection criteria are rigorously applied. GAF Healthcare connects international patients with JCI- and NABH-accredited orthopedic centers in India and JCI- and DHA-licensed hospitals in Dubai and Abu Dhabi, offering world-class surgical outcomes at a fraction of Western costs. Whether you are seeking high tibial osteotomy (HTO) for unicompartmental knee arthritis, pelvic osteotomy for hip dysplasia, or corrective femoral osteotomy for post-traumatic deformity, GAF Healthcare's end-to-end case management ensures a seamless, medically supervised journey from your home country to the operating theater and back. Hospital Stay: 3–7 days (varies by osteotomy type and fixation method) • Total Stay in Country (Fit-to-Fly): 4–8 weeks (weight-bearing status and radiographic healing confirmation required before long-haul flight) • Success Rate: 80–90% at 10-year functional follow-up
Clinical Overview
Osteotomy — from the Greek osteon (bone) and tomē (cutting) — is a surgical realignment procedure that corrects abnormal bone geometry, redistributes biomechanical load across a joint, and restores physiological alignment of the limb. It is most frequently performed around the knee and hip, though the technique is equally applicable to the foot, ankle, tibia, femur, and pelvis. The fundamental pathophysiology driving the need for osteotomy is focal joint overload: in varus knee arthritis, for example, the medial compartment sustains forces 2–4× greater than normal gait would produce, accelerating cartilage breakdown and subchondral bone remodeling. By shifting the mechanical axis of the limb, osteotomy reduces peak contact stress in the damaged compartment by 30–60%, allowing residual cartilage to recover function and, in many cases, permitting fibrocartilaginous healing of partial-thickness lesions. The three most clinically significant osteotomy subtypes are: (1) High Tibial Osteotomy (HTO) — the most common, performed for medial-compartment knee osteoarthritis in active patients under 65; (2) Distal Femoral Osteotomy (DFO) — indicated for valgus deformity with lateral compartment overload; and (3) Periacetabular Osteotomy (PAO, also called Ganz osteotomy) — the gold standard for hip dysplasia in skeletally mature patients, involving four separate cuts around the acetabulum to redirect the socket over the femoral head. Additional indications include tibial torsion correction, hallux valgus correction (chevron/scarf osteotomy), and pediatric Blount's disease. All modern osteotomies are fixed with low-profile locking plates and screws under fluoroscopic or navigation guidance, replacing the older technique of cast immobilization and enabling accelerated rehabilitation. The global standard of care has shifted decisively toward computer-assisted and patient-specific planning. Preoperative long-leg standing radiographs (full-limb EOS imaging or weight-bearing CT) are used to calculate the precise correction angle. Software platforms such as TraumaCad and Surgimap allow the surgeon to simulate the osteotomy digitally before making a single incision, and 3D-printed patient-specific cutting guides translate that plan to the operating room with sub-millimeter accuracy. In tertiary orthopedic centers across India and the UAE, these tools are now standard, placing their outcomes on par with leading European and North American institutions.
Who is a Candidate?
• IDEAL SURGICAL CANDIDATES: • Age typically 30–65 years (HTO/DFO); PAO candidates are usually 15–40 years with open or recently closed triradiate cartilage • Unicompartmental or focal joint arthritis (Kellgren-Lawrence Grade I–III); osteotomy is contraindicated in advanced tricompartmental disease (KL Grade IV) • Varus knee deformity (HTO) > 5° mechanical axis deviation, or valgus deformity (DFO) with lateral joint-line pain • Hip dysplasia with a lateral center-edge angle (LCEA) < 25° and anterior center-edge angle (ACEA) < 20° on standardized AP pelvis and false-profile radiographs • BMI ≤ 35 kg/m² (obesity increases non-union risk and limits hardware tolerance) • Adequate joint-space width (≥ 3 mm on stress radiographs for knee osteotomy) • Ligamentous stability: cruciate-deficient knee can be a relative contraindication unless combined with ligament reconstruction • Functional range of motion: knee flexion > 90° and extension deficit < 15° preoperatively • Motivation for a structured 6–12 month rehabilitation program • REQUIRED PRE-OPERATIVE DIAGNOSTICS: • Weight-bearing full-limb radiographs (EOS biplanar imaging preferred) to calculate mechanical axis deviation and correction angle • MRI of the target joint to assess meniscal integrity, cartilage thickness (MOAKS or WORMS scoring), and subchondral bone edema • Weight-bearing CT (WBCT) for complex foot/ankle or rotational deformity planning • Arthroscopy (diagnostic, same-sitting) in selected knee cases to confirm compartmental disease pattern • Standard pre-operative blood panel: CBC, CMP, coagulation screen (PT/INR/aPTT), HbA1c (diabetes screening), CRP/ESR (exclude septic arthritis) • DEXA scan for patients over 50 to exclude osteoporosis (T-score ≤ −2.5 is a relative contraindication to osteotomy with plate fixation) • ECG and cardiology clearance for patients over 50 or with cardiac history • Doppler ultrasound of lower limb veins in patients with prior DVT history • 3D CT or MRI for PAO planning to assess femoral head sphericity (Tönnis grade) and potential cam lesion requiring concurrent hip arthroscopy • CONTRAINDICATIONS: • Tricompartmental or severe bicompartmental osteoarthritis (KL Grade IV) • Active joint infection or osteomyelitis • Inflammatory arthropathy (rheumatoid arthritis) with synovitis — relative contraindication; requires rheumatologic optimization first • Severe osteoporosis (T-score < −2.5) without medical optimization • Peripheral arterial disease with ABI < 0.8 (poor wound healing risk) • Active smoker: nicotine causes 2–4× increased non-union rate; mandatory cessation ≥ 6 weeks preoperatively • Irreducible joint subluxation or severe femoral head deformity (Tönnis Grade 2–3 for PAO) • Morbid obesity (BMI > 40 kg/m²)
Treatment Options & Approaches
STANDARD OPEN OSTEOTOMY WITH PLATE FIXATION (CONTEMPORARY BASELINE): The current gold standard for HTO is the medial opening-wedge technique (Puddu/Tomofix plate construct), which offers greater technical precision and avoids disruption of the proximal tibiofibular joint compared to the older lateral closing-wedge method. Under spinal or general anesthesia, the surgeon makes a 6–8 cm medial incision below the pes anserinus, then uses sequential chisels under fluoroscopic guidance to create an incomplete osteotomy cut from medial to lateral, preserving a 1 cm lateral cortical hinge. The tibia is gradually distracted using a calibrated spreader to the pre-planned correction angle, confirmed by electrocautery cable alignment to the mechanical axis under fluoroscopic imaging. A low-profile locking plate (e.g., Synthes TomoFix or Arthrex iBalance) is applied; the opening wedge gap may be filled with beta-tricalcium phosphate (β-TCP) bone substitute, allograft, or autologous iliac crest graft depending on gap size. The lateral closing-wedge HTO, though less commonly performed today, remains preferred in specific cases involving patella alta. Post-operative weight-bearing is typically partial for 6 weeks, progressing to full weight-bearing by 8–10 weeks once radiographic callus is confirmed. DISTAL FEMORAL OSTEOTOMY (DFO) FOR VALGUS DEFORMITY: DFO corrects lateral compartment overload in patients with femoral-origin valgus. The lateral closing-wedge or medial opening-wedge approach is selected based on the site of deformity (epiphyseal vs. metaphyseal). Fixation is achieved with a 95° blade plate, a dynamic condylar screw (DCS), or a locking DFO plate (e.g., Synthes LCP). Correction targets a mechanical axis passing through the 50th percentile of the tibial plateau (Fujisawa point), adjusted to 62–66% for lateral compartment disease. Concurrent lateral meniscal repair or allograft transplantation may be performed arthroscopically at the same sitting. PERIACETABULAR OSTEOTOMY (GANZ PAO) FOR HIP DYSPLASIA: PAO is among the most technically demanding elective orthopedic procedures and should be performed only by fellowship-trained hip preservation surgeons at high-volume centers. Four sequential osteotomy cuts are made around the acetabulum (ischium, pubis, posterior column, and ilium) to fully mobilize the acetabular fragment while preserving posterior column blood supply and the continuity of the weight-bearing dome. The fragment is rotated anterolaterally by 10–30° to increase lateral coverage of the femoral head, confirmed intraoperatively with fluoroscopy and, increasingly, with 3D fluoroscopic reconstruction (e.g., O-arm imaging). Fixation uses 3–5 large-fragment cortical screws. Concurrent arthroscopic or open treatment of cam-type femoroacetabular impingement (FAI) is performed in up to 40% of PAO cases to optimize hip mechanics and reduce re-operation risk. COMPUTER-NAVIGATED AND ROBOT-ASSISTED OSTEOTOMY: Leading orthopedic centers in India (Apollo, Fortis, Kokilaben) and the UAE (Cleveland Clinic Abu Dhabi, Mediclinic City Hospital) now offer computer-navigated HTO using infrared optical systems (Stryker Navigation, Brainlab) that provide real-time mechanical axis data without relying solely on fluoroscopic cable alignment. This reduces the incidence of over- or under-correction from approximately 12–18% with conventional fluoroscopy to < 5% with navigation. Robotic-assisted osteotomy (MAKO SmartRobotics, used in select centers) represents the frontier — the surgeon executes cuts within a haptic boundary envelope generated from preoperative CT-based planning, delivering sub-millimeter accuracy. Patient-Specific Instrumentation (PSI) using 3D-printed cutting guides offers a cost-effective alternative that achieves similar accuracy without intraoperative navigation hardware. MINIMALLY INVASIVE AND ARTHROSCOPIC-ASSISTED OSTEOTOMY: Percutaneous or mini-open osteotomy techniques (incisions < 3 cm) reduce soft-tissue disruption and blood loss, particularly for distal radius osteotomy, metatarsal osteotomies (Weil, Scarf, Chevron for hallux valgus), and calcaneal osteotomies (medializing calcaneal osteotomy for adult flatfoot). Arthroscopic-assisted osteotomy for intra-articular malunions allows simultaneous joint debridement, chondral resurfacing with microfracture or AMIC (autologous matrix-induced chondrogenesis), and osteotomy fixation through minimized portals. These minimally invasive approaches reduce hospital stay to 1–3 days and accelerate return to weight-bearing by 2–3 weeks compared to open techniques. BIOLOGIC AUGMENTATION: Contemporary osteotomy practice frequently integrates biologic enhancement to accelerate union and promote cartilage recovery: (1) Platelet-Rich Plasma (PRP) injected into the osteotomy gap or residual cartilage defects at time of surgery; (2) bone morphogenetic protein-2 (rhBMP-2, Infuse) for large opening-wedge gaps (> 12 mm) at high non-union risk; (3) Mesenchymal Stem Cell (MSC) concentrate harvested from iliac crest and applied to the osteotomy site; and (4) Cartilage regeneration procedures — microfracture, AMIC, or autologous chondrocyte implantation (ACI) — performed concurrently to maximize the biological environment once load redistribution is achieved.
Recovery
PHASE 1 — REMOTE PRE-OPERATIVE EVALUATION (4–8 WEEKS BEFORE TRAVEL): • Upload existing imaging (X-rays, MRI, CT) to GAF Healthcare's secure portal; assigned case manager coordinates review by a senior orthopedic surgeon within 48–72 hours • Receive a detailed surgical plan, correction angle calculation, and implant selection report; video consultation with the operating surgeon is arranged • GAF Healthcare assists with medical visa application (India) or UAE entry visa / Golden Visa health pathway; average processing time 5–10 business days • Pre-operative optimization: cessation of NSAIDs and anticoagulants (per surgeon protocol), smoking cessation minimum 6 weeks, physiotherapy to maximize preoperative range of motion and quadriceps strength • HbA1c target < 7.5% confirmed; antihypertensives and cardiac medications reviewed PHASE 2 — ARRIVAL AND PRE-OPERATIVE WORKUP (DAYS −2 TO 0): • GAF Healthcare airport pickup in accessible vehicle; hotel or hospital guesthouse accommodation arranged • Day −2 to −1: in-hospital pre-admission workup — repeat weight-bearing radiographs (EOS long-leg films), MRI review, anesthesiology assessment (ASA classification, airway assessment, nerve block planning), blood bank cross-match • Dedicated GAF Healthcare patient liaison (bilingual) accompanies patient through all hospital interactions • Pre-operative marking and templating confirmed by surgeon; patient-specific cutting guides (if applicable) verified • Anesthesia plan finalized: regional nerve block (femoral nerve block or adductor canal block for HTO; lumbar plexus block for DFO/PAO) combined with spinal or general anesthesia reduces opioid consumption by 40–60% and supports same-day or next-day mobilization PHASE 3 — SURGERY DAY: • Procedure duration: HTO 60–90 minutes; DFO 90–120 minutes; PAO 150–240 minutes • Intraoperative fluoroscopy or navigation confirms correction angle and implant position before wound closure • Tranexamic acid (TXA) administered intravenously to minimize blood loss (reduces transfusion requirement by ~50%) • Wound closure with absorbable deep sutures and skin glue or staples; drain placement per surgeon preference (most modern HTO series are drain-free) • Patient transferred to post-anesthesia care unit (PACU) and then to orthopedic ward; nerve block provides 12–18 hours of postoperative analgesia PHASE 4 — INPATIENT RECOVERY (HOSPITAL DAYS 1–5): • Day 1: physiotherapist initiates ankle pumps, isometric quadriceps sets, and — for HTO — toe-touch or partial weight-bearing with crutches • DVT prophylaxis: low-molecular-weight heparin (LMWH, e.g., enoxaparin 40 mg SC daily) plus mechanical compression stockings commenced on day 1; continued for minimum 4–6 weeks • Pain management: multimodal protocol (celecoxib, acetaminophen, gabapentin, ice therapy) minimizes opioid requirement • Day 2–3: ambulation distance progressively increased; knee range-of-motion exercises commenced (CPM machine for PAO patients) • Day 3–5: discharge criteria met — pain controlled on oral analgesia, safe crutch ambulation confirmed, wound checked for dehiscence or hematoma, drain (if used) removed • Discharge with locking plate X-ray, wound care instructions, LMWH prescription, and physiotherapy home program PHASE 5 — POST-DISCHARGE OUTPATIENT RECOVERY IN-COUNTRY (WEEKS 1–6): • Weeks 1–2: accommodation in GAF-partnered serviced apartment or hotel; daily wound check by visiting nurse or outpatient clinic; staple/suture removal at 12–14 days • Week 2: first post-operative X-ray to confirm osteotomy gap and hardware position; surgeon review • Weeks 2–6: progressive weight-bearing as radiographs confirm callus formation; physiotherapy 3× per week (range of motion, quadriceps strengthening, gait retraining) • FIT-TO-FLY MILESTONE (Weeks 4–8): surgeon clears patient for long-haul flight when: (a) wound fully healed with no dehiscence, (b) radiographic evidence of early cortical bridging, (c) patient able to flex and extend knee sufficiently to sit in aircraft seat, and (d) DVT risk acceptably mitigated (transition from LMWH to rivaroxaban or aspirin for in-flight use) • In-flight DVT precautions provided in written form: compression stockings, hourly ankle exercises, hydration, consideration of single prophylactic dose of rivaroxaban 10 mg before boarding PHASE 6 — HOME COUNTRY RECOVERY (MONTHS 2–12): • Months 2–3: progressive weight-bearing to full; stationary cycling commenced at 6–8 weeks; pool walking at 8 weeks if wound fully healed • Month 3: X-ray confirms osteotomy union (cortical bridging on ≥ 3 of 4 cortices); crutches typically discontinued • Months 4–6: sport-specific rehabilitation; return to recreational sports (cycling, swimming, golf) typically by month 4–5 • Months 9–12: return to high-impact activities (running, skiing) if radiographic healing and clinical strength testing confirm readiness • Implant removal: low-profile locking plates rarely require removal unless symptomatic; if required, typically at 12–18 months post-union (planned as a separate, shorter procedure)
Risks to be aware of
Osteotomy surgery, while well-validated and generally safe in appropriately selected patients, carries a defined set of procedural and recovery-related risks that every patient must understand before providing informed consent. INTRAOPERATIVE RISKS: The most critical technical complication is lateral cortical hinge fracture during opening-wedge HTO, which occurs in approximately 5–20% of cases depending on surgeon experience and tibia morphology; incomplete hinge fractures are managed with additional fixation screws, while complete fractures may require conversion to a closing-wedge technique or supplementary fibular osteotomy. Peroneal nerve palsy (foot drop) occurs in 1–5% of HTO cases, typically transient and resolving within 3–6 months; risk is higher in closing-wedge techniques. Intraoperative blood loss averages 200–500 mL for HTO and up to 800 mL for PAO; TXA administration and cell-salvage systems mitigate transfusion risk. Vascular injury to the anterior tibial artery or popliteal vessels, though rare (< 0.5%), requires immediate vascular surgical intervention. POST-OPERATIVE COMPLICATIONS: Non-union of the osteotomy site is the most feared medium-term complication, occurring in 2–5% of cases; risk factors include smoking, osteoporosis, excessive gap size (> 15 mm without graft), and inadequate fixation. Hardware irritation from prominent plate edges is common (10–25%) and is the leading indication for implant removal surgery. Deep vein thrombosis (DVT) occurs in 3–10% of lower-limb osteotomy patients without chemoprophylaxis; routine LMWH reduces this to < 2%. Wound dehiscence or superficial infection occurs in 1–3%; deep periprosthetic infection, though rare (< 1%), may require hardware removal, debridement, and IV antibiotics. Compartment syndrome, though uncommon, is an orthopedic emergency requiring immediate fasciotomy. LONG-TERM OUTCOMES CONSIDERATIONS: Under-correction (residual varus/valgus) or over-correction (mechanical axis overcorrected beyond the target Fujisawa point) occurs in 8–15% of cases without navigation and is the most common cause of suboptimal functional outcomes. Patella baja (lowering of the patellar position) is a recognized complication of opening-wedge HTO that can cause anterior knee pain and restrict flexion; careful soft-tissue handling and patellar tendon lengthening (when needed) minimize this risk. In PAO, avascular necrosis (AVN) of the acetabular fragment or femoral head is a rare but serious complication (< 1% in experienced hands) related to disruption of posterior column vascularity. All patients should be counseled that osteotomy is a joint-preserving — not joint-replacing — procedure, and that 15–30% of patients will ultimately require total joint replacement within 10–15 years as osteoarthritis progresses despite successful mechanical correction.
Why GAF Healthcare
GAF Healthcare provides a fully integrated, non-medical support infrastructure designed to eliminate the logistical burden from the patient and their accompanying family member. VISA AND ENTRY ASSISTANCE: For India: GAF Healthcare's dedicated visa team prepares and submits the complete e-Medical Visa application on the patient's behalf, including the mandatory hospital invitation letter from the treating JCI- or NABH-accredited institution, passport copy, and supporting medical documents. The Indian e-Medical Visa (eTV-M) is typically approved within 3–5 business days and permits a stay of up to 60 days per visit, with up to three entries per year. One accompanying attendant (spouse, parent, or caregiver) is eligible for the e-Medical Attendant Visa (eTV-A) simultaneously. For UAE (Dubai / Abu Dhabi): Citizens of approximately 120 countries receive visa-on-arrival or visa-free entry to the UAE for stays of 30–90 days, covering the entire treatment and recovery period for most procedures. For patients from countries requiring a pre-arranged visa, GAF Healthcare coordinates with the hospital's International Patient Services department to issue a medical visa invitation letter and assists with the DHA-facilitated medical tourism visa process. UAE entry requirements are aligned with MOHAP (Ministry of Health and Prevention) medical tourism pathways. AIRPORT AND GROUND TRANSFERS: Accessible vehicle transfers (with space for crutches, wheelchair, or post-operative mobility aids) are arranged for arrival at and departure from all major airports — Delhi (IGI), Mumbai (CSIA), Chennai (MAA), and Bengaluru (BLR) in India; Dubai (DXB), Abu Dhabi (AUH), and Sharjah (SHJ) in the UAE. Post-operative transfers between hospital and recovery accommodation use vehicles with adjustable seating and step-free access. ACCOMMODATION: GAF Healthcare has negotiated preferential rates at serviced apartments and partner hotels within 3–10 km of all treating hospitals. All properties are vetted for accessibility (elevator access, walk-in shower, non-slip flooring) — critical for osteotomy patients on crutches. Accommodation packages include the attending family member at no additional charge in standard configurations. Extended-stay options (up to 8 weeks) are available with on-call medical escort service. DEDICATED PATIENT LIAISON AND TRANSLATION: Every international patient is assigned a named GAF Healthcare Patient Liaison Officer (PLO) who speaks the patient's language (services available in Arabic, Russian, French, Swahili, Bengali, and others on request). The PLO accompanies the patient to all hospital appointments, translates during surgical consent, assists with pharmacy instructions and discharge documentation, and is reachable 24/7 throughout the in-country stay. TELEMEDICINE FOLLOW-UP: After the patient returns home, GAF Healthcare coordinates structured teleconsultation follow-up with the treating surgeon at 2 weeks, 6 weeks, 3 months, and 6 months post-operatively. Patients upload follow-up radiographs through the GAF Healthcare patient portal for remote review and receive written clearance for progressive activity milestones (return to driving, return to sport).
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Related pages
How GAF Healthcare Assists in Choosing the Best Hospital for Osteotomy in Dubai, UAE
Discover the Top Hospitals for Osteotomy in Dubai, UAE
This page lists 3 accredited orthopedics hospitals in Dubai, UAE, so you can compare accreditation, specialties and bed capacity in one place.
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