Precision in
High-Stakes Environments.
From bespoke 3D modeling and surgical animations to the core system architecture, we built every component in-house to create a zero-risk virtual operating theater.
100%
Hand Tracking
0
Risk to Patients
100%
In-House Build
4k
Texture Res
Anatomy is Not Abstract.
Medical diagrams are flat. Surgery is spatial. A Biomedicine student needed to bridge this gap for their thesis on Anterior Lumbar Interbody Fusion (ALIF).
The requirement was not just "seeing" the surgery, but performing it. The system needed to simulate the physical constraints of implant alignment, incision depth, and instrument handling—all running smoothly on a standalone headset.
Iterative Simulation
We treated the human body as a rigid-body physics environment.
1. Bespoke 3D Asset Pipeline
Our in-house artists modeled high-fidelity anatomical structures from medical scans, retopologizing them into performant assets without compromising surgical accuracy.
2. Physics-Driven Animation
We developed custom interaction layers and skeletal animations: scalpels cut realistically, retractors provide visual tension, and implants respond to true spatial physics.
3. Comprehensive System Architecture
We engineered the entire software stack, ensuring seamless integration between hand-tracking inputs, pedagogical logic, and high-performance VR rendering.
From Diagram to Reality
Drag the slider to compare the traditional textbook approach vs. our spatial VR environment.
"Riad and the team delivered a functional prototype covering the crucial steps for my project. Their dedication was invaluable."
Maastricht University