Step 01
MR image acquisition
The patient’s MR data is transferred into the planning workflow.
OrthoAlign AI
Personalized knee implant planning
Strengthen patient-specific knee arthroplasty planning with AI.
OrthoAlign AI transforms MR images into patient-specific knee arthroplasty plans through anatomical segmentation and 3D bone reconstruction. Surgeons can review and adjust planning parameters in the same workspace.
A health technology R&D project supported by TÜBİTAK 1812 BiGG
OrthoAlign AI·3D planning
R&D workflow
From MR image to a
patient-specific 3D surgical plan.
Image processing, 3D modelling and planning come together in one digital workflow.
Step 01
MR image acquisition
The patient’s MR data is transferred into the planning workflow.
Step 02
Anatomical segmentation
AI separates the femur and tibia structures within the MR image.
Step 03
3D bone reconstruction
Segmentation data is transformed into a patient-specific three-dimensional knee model.
Step 04
Patient-specific surgical planning
Anatomical measurements, resection levels and component parameters are planned together.
Step 05
Surgeon-shaped planning
The surgeon reviews the plan, adjusts its parameters and approves it.
Planning workspace
Every critical surgical-planning parameter on one screen.
Anatomical measurements, component sizes and positions, resection levels and alignment options are displayed together in the same workspace.
Anatomical measurements
Measure key anatomical references on the femur and tibia.
Component placement
Review component size, position and anatomical fit together.
Femoral and tibial resections
Compare resection levels and related measurement parameters.
Alignment options
Evaluate rotation, slope and mechanical-alignment parameters.
Planning outputs
Three surgical application paths from one digital plan.
The 3D anatomical model and planning parameters create shared planning data for patient-specific cutting blocks, navigation and robotic-surgery infrastructure.
Planning output
3D anatomical model
Displays patient anatomy, measurements and planning references on an interactive 3D model.
Development area
Patient-specific cutting-block infrastructure
Creates the geometric data needed to design patient-specific femoral and tibial cutting guides.
Integration research
Navigation and robotic integration
Provides the data infrastructure for transferring planning parameters to navigation and robotic-surgery systems.
AI + surgeon expertise
AI analyses anatomy; the surgeon shapes the plan.
OrthoAlign AI makes anatomical measurements and planning options visible. The surgeon compares and adjusts parameters to create the patient-specific plan.
3D planning experience
Explore anatomy and planning parameters in one workspace.
Femoral and tibial anatomy is displayed together with landmarks, measurement planes, alignment and component options.
KNEE ARTHROPLASTY · 3D PLANNING
Explore anatomy in 3D
View the spatial relationship between the femur and tibia from different angles.
Measurements and landmarks
Evaluate anatomical landmarks, axes and measurement planes in the same view.
Compare planning options
Interactively adjust alignment, component position and resection parameters.
Scientific and technical foundation
Orthopaedics, medical imaging and software development converge in one planning platform.
OrthoAlign AI brings surgical-planning experience, MR image-processing research and 3D-modelling technologies together in the same product-development process.
Knee arthroplasty and surgical planning
Anatomical measurements and planning parameters are structured around real surgical workflows.
MR imaging and AI
Automatic segmentation of the femur and tibia creates patient-specific 3D anatomical models.
3D modelling and planning software
Anatomical data becomes a measurable, comparable and interactive surgical-planning workspace.