A CT scanogram of the lower limbs is a specialized imaging study that produces a calibrated, full‑length image of both legs using a CT scanner. It gives precise measurements of leg‑length discrepancy and bone alignment by imaging from hip to ankle in a single, low‑dose exam. It’s commonly used for diagnosis, preoperative planning and monitoring of orthopedic deformities and corrections.

A scanogram (limb-length X-ray) cost varies by country and facility: in public systems it may be covered or free; private outpatient imaging typically ranges about $100–$600 (US), £50–£200 (UK private), or ₹300–₹2,000 (India). Final price depends on hospital vs clinic, radiologist fees, and extra views/reports. Confirm exact pricing with the imaging centre.

A CT scan of the right leg is a detailed X‑ray imaging test that produces cross‑sectional and 3D views of bones, joints, muscles and blood vessels. It helps detect fractures, bone tumors, infections, complex joint injuries, and vascular or soft‑tissue problems, and guides surgical planning. The scan is quick and noninvasive, sometimes using injected contrast, and involves ionizing radiation.

A CT scanogram is a low‑dose, preliminary image used to localize anatomy and plan CT studies. It shows overall body alignment and length measurements—commonly used for limb‑length assessment, spinal alignment or scoliosis evaluation, and preoperative/trauma planning. It helps set scan boundaries and guide positioning but is not a high‑resolution diagnostic CT image.

Recovery after a scanogram is usually immediate and straightforward. If no sedation or contrast was used, you can resume normal activities at once. If iodinated contrast was given, drink extra fluids and watch for rare allergic signs (rash, swelling, breathing difficulty) and seek urgent care if they occur. After sedation you’ll need someone to escort you and avoid driving for 24 hours. Your doctor will discuss results.

A scanogram is performed to obtain precise, low‑distortion measurements of bone and limb lengths, most commonly to assess leg‑length discrepancy. It helps evaluate growth abnormalities, plan orthopedic surgeries (joint replacement, osteotomy) and preoperative templating, monitor healing or hardware position, and guide treatment decisions by providing accurate, reproducible radiographic length and alignment data.