Investigational software. Not cleared for clinical use. Every output must be reviewed by a qualified clinician.

From CT scan to surgical guide in about five minutes.

AI segments the scan, a clinical safety engine places the implants, and you get a guide ready to print. You see the reasoning for every placement.

Step 1 of 4

A CT scan goes in.

Upload a CBCT and an intraoral scan, as DICOM, NIfTI or STL. No landmarks to click.

Step 2 of 4~30 s

AI separates every structure.

Bone, each tooth and the nerve canal become their own 3D models.

Step 3 of 4~2 min

Implants placed by rule.

Around 500 positions per site are tested against 14 clinical rules. Nothing comes closer than 2 mm to the nerve.

Step 4 of 4~1 min

A guide, ready to print.

Drill sleeves at the planned angles and a fit taken from the scan.

Born at the University of the Basque Country, backed by its innovation ecosystem

Faster than a lab. Stricter than memory.

Days of back-and-forth, gone

A conventional guide takes a technician 2 to 4 hours of design and a lab one to two weeks of turnaround. NeoSegMed segments, plans and designs it in about five minutes, so the guide can go to print the same day as the scan.

Conventional lab workflow1–2 weeks
NeoSegMed~5 minutes

Our bar is enlarged so you can see it. At true scale it would be thinner than a pixel.

Fully automatic, trained on real cases

No landmarks to click and no structures to trace by hand. The pipeline learned from about 500 real cases and is built on published dental imaging and implant-planning research.

  • ~500real cases the AI learned from
  • 0points to click by hand
  • 14published-evidence clinical rules
From upload to finished guide, with no manual step in between.

It shows its reasoning

Each placement comes with a score against fourteen clinical rules, from nerve distance to bone density and root clearance. The surgeon sees why an implant sits where it does and which alternatives did worse.

  • Inferior alveolar nerve92
  • Cortical containment86
  • Bone quality74
  • Ridge centring81
  • Adjacent roots95
  • Parallelism88

Schematic. Six of the fourteen rules, with example scores.

The people behind it

Our story

Fouad Al-Hakim Khalak

Founder & CEO

PhD in advanced therapies for musculoskeletal repair from UPV/EHU's NanoBioCel group, where he worked on 3D bioprinting and tissue engineering. Leads the company and its science.

LinkedIn profile

Prof. José Luis Pedraz

Scientific Advisor

Professor at UPV/EHU and principal investigator of the NanoBioCel research group; heads a CIBER-BBN laboratory. More than 150 papers in the last ten years.

LinkedIn profile

Kamal Al Hakim

Clinical Advisor

Dentist and implant surgeon with his own clinic, and a daily user of surgical guides. Advises on how the guides are used at the chair.

LinkedIn profile

In the news

“Integrates segmentation, planning and the generation of personalised surgical guides into a single digital workflow.”
SPRI, Basque Government, 30 Sept 2026. Read the article
“First prize, New Innovative Initiatives: an AI platform for automatic segmentation of biomedical images and personalised surgical planning.”
BIC Araba, May 2026. Read the article
Get in touch

See it run on one of your own cases.

Send us an anonymised CBCT and intraoral scan. We run it live with you and show where the software agrees with your plan, and where it does not.

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