Physics
Core Approach

Passive sonar roots. Not ML guesswork.

Minimal CPU / Energy footprint
Resource Consumption

16MB RAM on iPhone 16

The Problem

Deepfakes are everywhere. Most detectors aren't working.

A deepfake is AI-generated audio or video that mimics a real person — cloning voices, fabricating faces, and creating convincing disinformation at scale. Today's detectors rely on surface-level signals. That's why they keep failing.

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01— Model dependency
They chase AI with more AI

Your detector is trained on yesterday's models. By the time it's deployed, it's already behind.

02 — Fragile signals
Surface features vanish under pressure

Compression, noise, transcoding — any light post-processing erases the artifacts detectors depend on.

03 — Production failure
Too many false positives to ship

Legitimate audio triggers alarms. At scale, that makes the tool unusable before it catches a single threat.

How it Works

A fundamentally different method.

UnCognito uses physics-based and acoustic signal analysis to evaluate authenticity — not AI pattern matching. Grounded in passive sonar research, where detecting what's real is a matter of physics, not guesswork.

Audio_Enters

Live stream, file, or real-time call

Acoustic_Analysis

Physics-based signal validation — audio entropy, harmonic structure, acoustic validity

Risk_Scoring

Authenticity signal generated — deterministic, not probabilistic guesswork

Verdict

Authentic / Synthetic verdict with confidence score in real time

Where it's deployed

Enterprise security stacks · Government & classified environments · Financial services KYC · Battlefield edge · Real-time call centres

What we build

Two product pillars. One fundamental edge.

In an environment where some benefit from speed and scale, UnCognito takes a fundamentally different approach: using physics, not more AI, to identify and neutralise deepfakes with greater efficiency, lower compute requirements, and materially improved reliability.

Cybersecurity / Deepfake Detection

Real-time, high-throughput detection of synthetic media across audio, video, and visual channels. Built for enterprise security stacks and government environments.

  • Audio deepfake detection — ~0.34% false positive rate
  • Visual deepfake detection — physics-based
  • Real-time video analysis for live streams
  • Embedded active countermeasures
  • Enterprise integration capability
Defence Acoustics

"Listen up to shoot down" — a passive acoustic detection system integrated with automated response capabilities for drone defence and battlefield awareness.

  • Detect drones via acoustic signatures
  • Minimal electronic footprint (stealth advantage)
  • Front-line, rear echelon & vehicle-mounted
  • Manoeuverist and precision warfare support
  • Automated response integration
The Approach

Why physics wins where AI falls short

AI systems chasing evolving generative models are locked in an arms race they cannot win. Physics-based detection is orthogonal to that race entirely.

01. Structural, not model-dependent

Physics detects inconsistencies that synthetic media cannot conceal, regardless of how the model evolves.

02. Lower latency and compute cost

No need for large AI inference pipelines — physics-based checks run efficiently in real time.

03. Stable under adversarial iteration

As attackers iterate on generative models, our detection does not degrade — it remains anchored in physical reality.

04. Built for demanding environments

Deployable offline, at the edge, in classified environments — where heavyweight cloud AI cannot go.

ATTRIBUTE AI vs AI PHYSICS-BASED
Approach Arms race dynamics Orthogonal
Compute High Low
Detection Method Reactive / model-based Structural
Over Time Degrades Stable
Edge / Offline Limited Native
Latency High Real-time

Defeating deepfakes with physics — not more AI

In a world where any voice can be cloned and any face can be faked, UnCognito gives you the ability to know what's real — before it's too late.

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