Skip to content
One model. Every radiograph.

A second read on
every radiograph.

Oralytix flags regions worth a closer look and lines up historical images automatically, so the dentist starts from a shortlist, not a blank film. Every finding is a suggestion until a dentist confirms it.

Dentist approves every finding Built for the existing chart, not a new one First-pass review in seconds, not minutes B2B software, sold to practices and DSOs, not patients
Dentist and assistant treating a patient in the operatory, with imaging equipment visible beside the chair.
The problem

Dental imaging is information-rich. The workflow around it isn't.

A single visit can produce a panoramic scan, a set of bitewings, and two years of prior studies to check against. None of that is a shortage of information. It's a shortage of time to look at all of it, tooth by tooth, film by film.

  1. 01Open the patient record and locate the relevant image
  2. 02Step through each tooth individually, front to back
  3. 03Flag anything that looks worth a second look
  4. 04Pull up prior studies and compare by eye
  5. 05Write it up, then explain it to the patient in plain terms
Oralytix doesn't remove a step from that list. It does step 2 through 4 first, so the dentist's time goes to judgment, not scanning.
How a scan moves through the system

How a scan moves from upload to chart note

This is the actual path an image takes. Each stage either checks the image or hands a decision back to the dentist.

01

Image received

Bitewing, periapical, panoramic, or CBCT, pulled in from the sensor or uploaded directly.

02

Quality check

Exposure, positioning, and cropping are checked before analysis runs, so a blurry film doesn't produce a false-confident finding.

03

Tooth detection

Individual teeth are identified and numbered, giving every later finding a fixed address in the mouth.

04

AI analysis

The model looks for candidate findings (caries, existing restorations, periapical changes) across the full image.

05

Visual highlighting

Candidate regions are outlined directly on the image, not described in a separate report.

06

Historical comparison

Prior studies for the same patient are aligned automatically, and regions that changed are marked.

07

Dentist review

Every finding sits in a queue of three actions: confirm, dismiss, or modify. Nothing is written to the chart unreviewed.

08

Clinical documentation

Confirmed findings are turned into structured notes in the dentist's own phrasing, ready to edit.

09

Imaging history updates

The patient's timeline updates automatically, so the next visit starts with full context already in place.

AI assists. Dentist decides.
Oralytix never writes a diagnosis to the chart. It surfaces candidates; the dentist accepts, edits, or dismisses each one.
Read how review works
See it work

Follow one scan through the system

The same four stages from the workflow above, made interactive. Click a stage to see what it actually looks like, including the two seconds where the model does its job.

16 26 47
panoramic_scan_2026.dcm · 4.2 MB
Uploading to secure storage…
✓ Image quality: good
✓ Teeth detected: 11
✓ Candidates scored: 3

Step 1: Upload

A bitewing, periapical, panoramic, or CBCT image is pulled in from the sensor or uploaded directly. Nothing is analyzed yet. This step only checks that the file arrived intact.

Tooth 16: possible carious lesion
Localized radiolucency on the mesial surface. Recommend visual and tactile exam to confirm.
87%
Select a highlighted tooth to inspect it, then move to Decision.
Logged: confirmed by reviewing dentist · written to chart · audit trail updated.

Click "02 AI analysis" above to see what the model checks.

Gloved hands holding a periapical radiograph up to a monitor, using a dental probe to point at a tooth root.
AI overlay active
Feature spotlight

The finding lives where the eyes already are

Instead of a text line reading "possible caries, lower right," the region itself is outlined on the radiograph. Click it, and a panel opens with the tooth number, the finding, and the model's confidence. The same interaction shown in the scan above.

  • Click-through, not scroll-through
    The dentist inspects flagged regions directly instead of scanning the whole image from scratch.
  • Confidence shown plainly
    Every finding carries a model-confidence figure, so low-certainty candidates read differently than high-certainty ones.
  • Explainable by design
    Because findings are anchored to a visible region, they're easy to check against the image, not just take on faith.
Built for the way the review already works

The four places imaging review loses time

Each one addresses a specific point where imaging review loses time, without asking a practice to change how it charts.

Review

Findings you can see

Candidate regions are outlined directly on the radiograph, with tooth number and model confidence attached, never a text line in a separate report.

Learn more
History

Every study, one timeline

Prior radiographs line up automatically by date, turning two years of loose files into one continuous view.

Learn more
Quality

Retake before you misread

Exposure, positioning, and cropping are checked before analysis runs, so a blurry film gets flagged instead of confidently misread.

Learn more
The rest of the toolkit

Built around the parts of the review that eat the most time

Dental team member holding up a monitor showing four panoramic and periapical radiograph panels.
Analysis

AI image analysis

A first pass across the full image returns a short list of regions worth a closer look, not twenty flags, just a handful that matter.

Detection

Automatic tooth detection

Every tooth is identified and numbered, so a finding, a note, or a prior treatment always has a fixed home to attach to.

11 12 13 14 ···
Timeline

Imaging history, laid out by date

Every prior study lines up on one timeline, so the dentist is comparing against what actually happened last visit.

2022 2024 2026
Dentist holding two printed panoramic radiographs up to an overhead light for side-by-side comparison.
Comparison

Compare mode: side-by-side, overlay, or difference

Pick two studies and Oralytix aligns them automatically. A note like "potential change, region of tooth 36" points to exactly where to look. The dentist still makes the call.

Dentist explaining a printed radiograph to a patient, held up under overhead clinic lighting.
Quality

Image quality assistant

Checked before analysis runs: exposure, positioning, cropping, and blur. A flagged image gets retaken instead of confidently misread.

Review

Confirm, dismiss, or modify

Every AI finding sits behind a decision. Nothing reaches the chart without a dentist's sign-off.

✓ Confirmed ✕ Not relevant
Documentation

Notes in your shorthand, expanded into the chart

A quick note becomes a structured entry the dentist edits before saving, so three dentists writing three different shorthands still produce consistent charts.

Dentist input"46 looks suspicious. Compare with previous X-ray."
Drafted findingTooth 46 demonstrates an area requiring clinical review; comparison with the previous radiograph is recommended.
Young girl smiling in the dental chair during a routine check-up.
Patient communication

The same finding, explained twice

A radiograph is easy for a dentist to read and hard for almost everyone else. Patient mode keeps the technical view for the chart, and swaps in plain language for the conversation across the room. The dentist chooses what the patient sees.

Clinical view

Radiolucency, distal surface, tooth 46. Consistent with early-stage carious lesion. Recommend restorative evaluation.

The rule the product is built around

AI assists. The dentist decides.

Oralytix doesn't diagnose, and it doesn't get the last word. It's built to make the dentist's read faster and less easy to miss something in, never to replace the read itself.

  • Every AI finding is labeled as a candidate for review, never a diagnosis.
  • Nothing is written to the patient chart until a dentist confirms, edits, or dismisses it.
  • Model confidence is always visible next to the finding, not hidden behind a plain "detected" label.
Two dental professionals in an operatory, smiling with an okay hand gesture.
Why now

The timing isn't incidental

  • 1

    Caries detection is validated research, not a bet

    AI-assisted caries and abnormality detection is one of the more thoroughly studied problems in dental imaging. The science exists to build on, not invent from scratch.

  • 2

    GPU inference is cheap enough to run per-scan

    Serving a model per radiograph, at seconds-not-minutes latency, is now a reasonable cost. It wasn't five years ago.

  • 3

    Practices are already digitizing imaging

    Digital sensors and PACS-style storage are now the norm in most practices, not the exception. The raw material an AI review needs already exists in the workflow.

  • 4

    Imaging AI is entering clinical use, with a regulatory path

    Cleared dental AI systems already return visual findings like bounding boxes and segmentation outlines. The regulatory category exists and is being actively used, not theoretical.

Augmented reality visualization of a dental scan, representing the current state of dental imaging technology.
The roadmap

Each phase earns the next one

Each phase only starts once the one before it has been trusted in real practices. Nothing here is a feature list. It's the order things have to happen in.

Phase 01 Now

Prove the read

The first release stays narrow on purpose: caries and abnormality candidates, one of the more thoroughly studied problems in dental imaging AI. Every finding routes through confirm, dismiss, or modify before it touches a chart. This phase is about earning trust one scan at a time, not covering every condition on day one.

Phase 02 Next

Prove the pattern

Once the first-pass read is trusted, historical comparison stops being two images side by side and becomes automatic change detection, flagging what's actually different, not just what's there. Structured summaries start drafting themselves from confirmed findings, and model performance gets benchmarked across practices, not just within one.

Phase 03 Later

Prove the system

With a validated read and a validated pattern, the model earns a harder job: flagging which patients are due a closer look before their next visit, not just reading the scan already in front of it. Support extends to CBCT and deeper integration with the practice's existing management software, so the review lives where the rest of the chart already does.

Why this needs real infrastructure

Built for medical-image volume and real inference load

Analyzing full-resolution radiographs at practice volume, with a latency budget measured in seconds, is a cloud-compute and GPU problem before it's anything else. That's why the stack is built from purpose-fit services across providers, not one vendor's bundle.

AWS

Cloud infrastructure

Storage, compute, and monitoring for every scan
Amazon S3 Stores encrypted radiographs, intraoral photos, and the annotated reference datasets used to validate each model release.
Amazon ECS Runs the AI inference services that analyze every uploaded scan, scaled independently from the rest of the application.
Amazon RDS Stores patient-independent operational metadata: tooth-numbering schemas, model version history, and the audit trail behind every confirm, dismiss, or modify action.
AWS Lambda Handles event-driven processing, triggering quality checks and comparison jobs the moment a new image lands in storage.
Amazon CloudWatch Monitors inference latency and system health, so a slow model shows up before it reaches chairside review.
Amazon Bedrock (planned) Planned for Phase 2, generating the structured summary drafts described in the roadmap, once historical comparison is validated.
NVIDIA

GPU compute

Training and serving the imaging models
CUDA Powers GPU-accelerated training of the caries and abnormality detection models on annotated radiograph datasets.
TensorRT Optimizes inference latency. The difference between a first-pass review that takes seconds and one that takes minutes.
Triton Inference Server Serves the tooth-detection, quality-check, and candidate-finding models concurrently, without standing up separate infrastructure for each.
NVIDIA GPUs Accelerate image analysis across panoramic, bitewing, and periapical inputs at the volume a multi-chair practice actually produces.
NVIDIA Jetson (roadmap) On the roadmap for Phase 3, edge inference for practices with limited connectivity, as CBCT support expands the volume of data per study.
Azure

Identity, documents & delivery

The web app tier, kept separate from the imaging pipeline
Microsoft Entra ID Handles practice staff identity and role-based access (dentist, hygienist, or admin), with managed identities so no credentials live in application code.
Azure Key Vault Stores API keys, database credentials, and certificates for the practice-facing web app, isolated from the imaging pipeline's own secrets.
Azure AI Document Intelligence Parses referral letters and intake paperwork that travel alongside imaging, extracting structured fields so they attach to the right patient record automatically.
Azure Blob Storage Stores generated PDF reports and structured clinical-note exports. The output side of the workflow, separate from the raw radiographs kept in Amazon S3.
Azure Static Web Apps Serves the patient-facing explanation views and marketing site behind a global CDN, decoupled from the imaging application.
Azure Machine Learning (planned) Planned for the reference-dataset phase, managing retraining runs as verified findings from design partners accumulate.

AWS, NVIDIA, and Microsoft Azure are trademarks of their respective owners. Oralytix is not affiliated with or endorsed by them.

Market

A workflow problem at the scale of the entire industry

The imaging review bottleneck described earlier isn't specific to one practice. It exists everywhere dental radiographs get read. Oralytix is sold as B2B software: the buyer is the practice owner or DSO administrator, not the patient.

178,000+
Active dental practices in the U.S., each reading radiographs on their own equipment and their own time.
Source: ADA Health Policy Institute / IBISWorld, 2026
202,000+
Practicing dentists nationwide, the workforce actually doing the tooth-by-tooth review this product targets.
Source: ADA Health Policy Institute, 2024
$1.28B → $3.01B
Estimated global AI-in-dental-imaging market, 2025 to 2030, at roughly 18.6% projected annual growth.
Source: industry market research estimates, 2025

Solo and small practices

The majority of U.S. dental practices are still solo or small-group, practice ownership has declined from 85% to 73% since 2005, but most reads still happen without a second set of eyes. This is where a first-pass review changes the workflow the most.

DSOs and group practices

Dental support organizations now account for a fast-growing share of U.S. practices and lean on standardized workflows across many locations. Consistent, structured findings are what makes an AI review scale across a chain instead of one office.

Target users

  • General and pediatric dental practices
  • Dental support organizations (DSOs)
  • Practice management software partners

Revenue model

  • Per-seat monthly subscription, priced by chair count
  • Usage-based pricing for high-volume DSO imaging centers
  • Integration fees for practice-management-software partners

Growth plan

  • Start with a small cohort of solo and small-group practices
  • Expand within a single DSO network once the workflow is validated
  • Then expand by region, following where imaging is already digitized
Where we are

Live, early, and specific about it

The MVP is live in production. This isn't a beta or a waitlist page. These are the real numbers behind it, shown as ranges because that's what's actually verifiable at this stage.

Live in production

10–30 active MVP users

Dentists and practice staff using the live product today: uploading scans, reviewing AI findings, confirming or dismissing candidates.

Committed

3–5 design partners

Practices actively shaping the roadmap, their feedback is what decided the order of the phases on this page.

Agreed

2–3 pilot commitments

Practices that have agreed to run a structured pilot once the next review milestone ships.

In hand

5–8 letters of intent

Practices ready to adopt Oralytix once their pilot criteria are met, not verbal interest, signed intent.

15–25 Qualified practices currently discussing a pilot
30–50 Customer discovery interviews with practicing dentists
100–250 Qualified practices on the early-access waitlist

Figures are shown as ranges because exact counts shift week to week at this stage, we'd rather publish a verifiable range than a precise-looking number we can't stand behind. Named partners appear only once they've agreed to be named. The Trust & Review page covers our approach to this in more detail.

Team

The people behind the first version

Oralytix is built by a small team that would rather ship one well-reviewed capability than ten unreviewed ones.

Portrait of Ezeagwuna Chinemelu Hillary, Co-Founder and CEO of Oralytix.
Co-Founder & CEO

Ezeagwuna Chinemelu Hillary

Focused on making sure the product fits how a practice actually charts, not how a slide deck says it should, and that every partnership starts from what dental teams actually need.

Portrait of Amara Chukwuemeka, Co-Founder and CTO of Oralytix.
Co-Founder & CTO

Amara Chukwuemeka

Built computer-vision models for medical imaging before turning to dental radiographs specifically. Owns the line the product won't cross: no finding reaches a chart without a dentist's review.

Early conversations

Who we're talking to, honestly stated

Oralytix is pre-pilot. Rather than publish quotes we can't verify, here's what the current conversations actually look like.

Dentist reviewing a four-panel radiograph display on a wall-mounted monitor.
In discussion

A general dentistry practice evaluating fit for a high-volume bitewing and panoramic workflow.

Solo practice, early access conversation
Portrait of a dentist in a white coat with a stethoscope, arms crossed.
In discussion

A multi-chair clinic weighing the review-and-approval workflow against their current charting process.

Four-chair clinic, early access conversation
Dentist showing a patient a printed radiograph and explaining a finding.
Open

Interested in patient mode specifically, for practices with a high share of pediatric and first-time patients.

Associate dentist, exploratory conversation

No names are published here until a pilot is confirmed and the practice has agreed to be named. This is the same standard the traction section above holds to.

A note on how this is classified

For practices evaluating the product

Software that analyzes radiological images falls within a medical-device category in the United States, and a number of AI-assisted dental imaging tools, including ones that return visual findings like bounding boxes or segmentation outlines, are already in clinical use under that framework.

Oralytix is built around that reality rather than around it: findings are presented as candidates for review, not as diagnoses, and every one requires a dentist's decision before it becomes part of the record.

Get started

See the review flow with your own image types

A walkthrough runs through a real bitewing, periapical, and panoramic study, no patient data required to see how it works.