An integrated, zero-friction biometric authentication engine. In a single capture under 150ms, our model evaluates passive liveness first to block presentation spoof attacks, then generates an immutable 256-bit encrypted facial key for passwordless login.
The Face ID engine is not exposed as a public sandbox yet. Book a session and we will run your own captures through it live.
Passive liveness and 256-bit key generation run on our hosted engine, which we have not opened for anonymous uploads. Rather than show you a scripted result, we would rather put the real pipeline in front of you.
We do not publish simulated output for this engine — you will see results from a real run, or nothing at all.
Most biometric stacks ask the user to blink, smile or turn their head, then run identity separately. We collapse both into a single frame: the same capture that proves the person is physically present is the capture the facial key is derived from, so an attacker never gets a gap between the two steps to slip a stored image into.
One ordinary frame from a webcam or phone camera. No prompt sequence, no video upload, no instruction the user has to read and follow before they can log in.
The frame is scored for physical presence: micro-texture of real skin, screen pixel moiré, print grain and the flat light response of a mask. A fail ends the request here.
Only a live capture reaches this stage. The face is reduced to an encrypted 256-bit vector, which is what gets stored and compared on every later login.
If stage one fails, stage two never runs. A spoofed capture cannot produce a facial key, so a rejected attack leaves nothing enrolled and nothing to revoke.
Presentation attacks each leave a different physical signature. The model is trained on all of them at once rather than on a single trick, so defeating one signal does not get an attacker through.
| Attack Vector | How It Is Attempted | Signal Used to Reject It |
|---|---|---|
| Paper Print | A printed photograph of the legitimate user held in front of the camera. | Print grain, ink dot structure and the absence of real sub-surface skin texture. |
| Screen Replay | A selfie or video played back from a phone, tablet or monitor. | Pixel moiré, display refresh artefacts, bezel geometry and specular screen glare. |
| Cut-Out & Paper Mask | A print with eye or mouth holes worn over a real face to fake depth. | Depth discontinuity at the cut edges and mismatched lighting between layers. |
| 3D Silicone Mask | A moulded prosthetic reproducing the target's facial geometry. | Material reflectance and light falloff that do not match living tissue. |
| Stored-Image Injection | Skipping the camera and posting a previously captured frame straight to the endpoint. | Liveness runs on the same frame the key is derived from, so an injected image never yields a key. |
Active liveness — blink now, turn left, follow the dot — is where onboarding funnels lose people, and it is also learnable: an attacker who knows the prompt set can rehearse it on a replayed video.
Anywhere a face currently stands in for a password, a signature or a supervisor's word.
Confirm a real person is behind the application before the account exists, without adding a prompt sequence that costs you completions at the last step of the funnel.
Replace passwords and SMS OTP with the facial key. Nothing to phish, nothing to SIM-swap, and no shared secret sitting in a support agent's reach.
Re-verify at the moment of a large transfer, a payee change or a credential reset, rather than trusting a session that was authenticated hours earlier.
End buddy punching on shift-based sites. A photo of a colleague on a phone screen is rejected before an attendance record is ever written.
Prove the same live person is present throughout an exam, an inspection or a field survey, on the device already in their hand.
Gate turnstiles, kiosks and operator terminals on a live face instead of a badge that can be lent, lost or cloned.
Call a single endpoint with the user's video frame. Receive both liveness validation telemetry and the 256-bit encrypted facial key in one JSON object.
curl -X POST https://api.dynsimulation.com/v1/vision/face-id/verify \ -H "Authorization: Bearer YOUR_API_KEY" \ -F "image=@live_user_frame.jpg" \ -F "user_id=usr_991823a" \ -F "require_liveness=true"
Face databases are attractive targets because a stolen photo is reusable forever. Our pipeline is built so there is no photo library to steal: captures are processed in memory and discarded, and only the encrypted 256-bit key persists.
Captures exist only for the duration of the request. Nothing is written to disk, so there is no gallery to breach.
What persists is a 256-bit encrypted key. It is not a picture and cannot be rendered back into one.
A key can be revoked and re-enrolled, which is exactly what a stored photograph can never be.
Production traffic is not used to train the model. What you send through the endpoint stays yours.
A single REST endpoint returning liveness telemetry and the facial key in one JSON response. Sandbox keys, then production, with nothing to host yourself.
Web SDK plus React Native, Flutter, iOS and Android wrappers, so capture quality and the pipeline behave identically across every client you ship.
The same engine in an air-gapped container inside your own network, for deployments where biometric data cannot cross an external boundary.
Connect with our engineering team to receive sandbox API keys, native mobile SDKs, or on-premises container licenses.
It is passive and single-frame: the model evaluates liveness from one ordinary capture, with no head turns, blinks or on-screen prompts, and rejects 2D paper prints and screen replays before any identity step runs.
Once liveness passes, the model generates an encrypted 256-bit vector that represents the face. That key is what gets stored and compared for passwordless login — not the original photograph.
Under 150ms end to end, covering both the liveness check and the facial key generation in a single capture.
A cross-platform Web SDK plus React Native, Flutter, iOS and Android wrappers, so the same pipeline runs in browser and native mobile applications.
Yes. Alongside the managed API there is an on-premises air-gapped GPU container for deployments that cannot call an external endpoint.
No. Captures are processed in memory and discarded; only the encrypted facial key persists, and production traffic is not used to train the model.
Paper prints, screen and video replays, cut-out paper masks and 3D silicone masks. Each leaves a different physical signature — print grain, screen moiré, depth discontinuity, material reflectance — and the model is trained on all of them together rather than on one trick.
Liveness is evaluated on the same frame the facial key is derived from, so there is no gap between the two steps. An injected image that fails liveness never reaches key generation, which means nothing is enrolled and nothing has to be revoked.
It can be revoked and the user re-enrolled. That is the practical advantage of storing an encrypted vector rather than a photograph, which can never be reissued.