What are Patient-Specific Models?

Patient-Specific Models (PSMs) are detailed 3D anatomical replicas created using advanced imaging techniques such as CT, MRI, or laser scanning. These models are designed to represent the exact structure, proportions, and variations of an individual’s anatomy, providing highly accurate insights for surgical planning and treatment. Patient-specific models are commonly used in:

Orthopedic Surgery – Joint reconstruction planning, deformity correction, and implant alignment.
Maxillofacial & Dental Surgery – Jaw repositioning, implant placement, and facial reconstruction.
Neurosurgery – Tumor boundary visualization, pathway mapping, and skull-base planning.
Cardiac & Thoracic Surgery – Structural modeling, device placement, and surgical route planning.
Plastic & Reconstructive Surgery – Soft-tissue simulation, symmetry analysis, and aesthetic preparation.
Pediatric Surgery – Congenital anomaly mapping and growth-adapted planning.

These models offer a clear, patient-specific understanding of complex anatomy and support clinicians in making precise, informed decisions before surgery.

Key Components of Our Patient-Specific Model Service

Accurate Anatomical Reconstruction

We generate high-precision 3D models using patient imaging data.
Every structure is reconstructed with exact detail, helping surgeons study anatomy thoroughly before the procedure.

Enhanced Visualization & Pre-Surgical Insight

Clear visualization of complex areas to support better surgical planning.
Digital models that allow rotation, cross-section views, and measurement.
Improved identification of risks, anatomical variations, and surgical pathways.

By understanding the patient’s exact anatomy in advance, surgeons can plan more effectively, reduce uncertainty, and achieve better surgical outcomes.

Mandible

Patient-specific mandibular models provide an accurate 3D representation of the lower jaw, helping surgeons plan reconstructive, orthognathic, and trauma-related procedures with greater precision. These models allow for detailed visualization of bone structure, dental alignment, and anatomical variations, supporting improved surgical accuracy and predictable outcomes.