HomeProceduresScoliosis Surgery / Robotic Scoliosis

Scoliosis Surgery / Robotic Scoliosis

A major spinal operation that straightens curvature using titanium rods, pedicle screws and bone graft, often with robotic or navigation guidance for screw placement.

Surgical Spine (thoracic and/or lumbar vertebrae) Avg. stay 14 days 0 clinics

Overview

Scoliosis surgery is performed to correct progressive lateral curvature of the spine in adolescents and adults when bracing has failed or when the curve exceeds about 45-50 degrees on standing radiographs. The standard operation is posterior instrumented spinal fusion, in which titanium pedicle screws and rods anchor the vertebrae while bone graft promotes solid bony fusion across the corrected segments. Anterior, combined anterior-posterior, and vertebral body tethering approaches are reserved for selected cases. Robotic and navigation-assisted spinal surgery has expanded internationally. Pre-operative CT-based planning and intraoperative imaging guide a robotic arm that aligns the surgeon's drill or screwdriver along the planned pedicle trajectory, improving screw accuracy and reducing fluoroscopy exposure. NHS specialist centres such as the Royal National Orthopaedic Hospital and Great Ormond Street perform high volumes of paediatric and adult scoliosis surgery. The operation typically takes 4-8 hours under general anaesthesia with intraoperative neuromonitoring of spinal cord function. NHS patient information indicates that patients are usually ready to leave hospital from four days after surgery and can return to work or school in four to six weeks. International patients typically remain in-country for 10-14 days for wound check, mobilisation and brace fitting if required. Surgery successfully corrects curvature in the majority of cases and prevents progression. Sources: NHS, NHS Royal National Orthopaedic Hospital, Great Ormond Street Hospital, NICE.

Hospital & stay

2–3 nights
Hospital stay
14 days
Total stay abroad
Surgical
Procedure type

Procedure details

How it's performed

Under general anaesthesia with intraoperative spinal cord monitoring, the patient is positioned prone. A posterior midline incision exposes the vertebrae. With or without robotic/navigation guidance, pedicle screws are placed bilaterally at each instrumented level; pre-bent titanium rods are then secured to the screws and used to derotate and straighten the curve. Autologous and/or allograft bone is applied along the decorticated facet joints to create the fusion bed. The wound is closed in layers over a drain.

Preparation
  1. 1Standing whole-spine radiographs and MRI; pulmonary function tests for thoracic curves.
  2. 2Anaesthetic and cardiac review; nutritional optimisation and treatment of any infection.
  3. 3Pre-operative blood donation or iron supplementation to reduce transfusion need.
  4. 4Skin preparation and physiotherapy briefing on log-rolling, transfers and post-operative exercises.
  5. 5For paediatric patients, school liaison and family education about the recovery period.
Recovery
  1. 1Day 0-1: ICU or HDU observation with neuro checks and pain control via patient-controlled analgesia.
  2. 2Days 1-3: Sit, stand and walk with physiotherapy; drain removal once output is low.
  3. 3Days 4-7: Hospital discharge; oral analgesia continues.
  4. 4Weeks 2-4: Wound check and stitch removal; gentle increase in activity at home.
  5. 5Weeks 4-6: Return to school or office work; brace worn for up to 6 months in selected cases.
  6. 6Months 3-12: Follow-up standing radiographs; gradual return to sport over 6-12 months; long-term annual review.

Related procedures

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Evidence on scoliosis surgery and robot-assisted spinal correction

13 peer-reviewed sources

Surgical correction of scoliosis, most often posterior spinal fusion with pedicle screw instrumentation, is supported by long-term studies showing durable deformity correction and meaningful quality-of-life gains in adolescent idiopathic scoliosis. A rapidly expanding literature now evaluates robot-assisted and navigation-guided screw placement, with meta-analyses and a randomized trial reporting high placement accuracy and the potential to reduce malpositioned screws compared with freehand technique. The references below span long-term clinical and quality-of-life outcomes, complication and revision data, and head-to-head comparisons of robotic, navigated, and conventional instrumentation. Robotic assistance is a tool that supports the surgeon rather than a replacement for surgical judgment, and benefits depend on the platform, deformity complexity, and team experience. Findings reflect group-level evidence and should be interpreted alongside individual clinical assessment.

  1. Comparative long-term quality of life outcomes in adolescent idiopathic scoliosis: a meta-analysis
    Burgos J et al. · European Spine Journal · 2026
    Meta-AnalysisPMID 41817593DOI
  2. Single-arm meta-analysis on robotic spine instrumentation for young patients
    Łajczak P et al. · European Journal of Orthopaedic Surgery & Traumatology · 2025
    Systematic Review / Meta-AnalysisPMID 41044430DOI
  3. Robot-assisted Versus Conventional Pedicle Screw Instrumentation for Pediatric, Adolescent and Young Adult Patients
    Łajczak A et al. · Spine · 2025
    Systematic Review / Meta-AnalysisPMID 40932300DOI
  4. Robot-assisted technique versus freehand technique for spine surgery: an umbrella review
    Li T et al. · Annals of Medicine · 2025
    Umbrella ReviewPMID 40631354DOI
  5. Safety and accuracy of robot-assisted pedicle screw fixation: a randomized controlled trial
    Jiang Y et al. · International Journal of Surgery · 2025
    Randomized Controlled TrialPMID 41417955DOI

Compiled from peer-reviewed medical literature indexed on PubMed. This overview is for general education and is not medical advice. · Last updated 2026-06-15