The context and intelligence layer for human anatomy.
We turn patient imaging and surgical expertise into knowledge you can act on.
Scroll to follow one scan.
It starts with a scan the hospital already takes.
Hundreds of slices through one abdominal aortic aneurysm. Most of the story isn't visible yet.
Our models read every slice.
Lumen. Where blood still flows. It looks like the whole aneurysm. It isn't.
Thrombus. Old clot the dye can't light up. The aneurysm is bigger than it looks.
Calcification. Hard plaque in the wall. It changes where a device can land.
Now the patient has a digital twin.
Every branch where it really is.
Pick it up.
Drag to turn it. Switch layers to look inside.
And what a scan can't show.
History, labs, notes and a surgeon's eye join the twin.
- Earlier imaging
- Sac grew 5 mm in 2 years
- History
- 72, ex-smoker, CKD stage 3
- Surgeon
- "Review the proximal seal"
This record is invented. The scan is real and public, and nothing is known about the patient.
Then we work out how blood moves through it.
On this patient's own geometry, not a textbook's.
Flow shown here is illustrative, not a result for this patient.
Wall shear stress: where blood drags hardest.
Worth knowing before anyone goes in.
Colours are illustrative. We show no values on purpose.
One twin. Two ways to use it.
Every measurement a device asks for.
Even a bent neck reads true.
Model estimates from a public research scan. Not reviewed by a clinician.
Which device fits?
| Requirement | This scan | Device limit | Result |
|---|
Devices and limits are illustrative.
Every scan becomes a comparable twin.
Every orange point is a patient today's devices miss. This patient is one of them.
Test a device before you build it.
Drag the limits. Green points are the patients it brings in.
Hand R&D a brief backed by anatomy.
Then draw a graft to match.
Concept drawing, not a manufactured device.
That was one scan.
We're starting with the aorta, for surgery, research and medical devices. It won't stop there.