Check whether a video was filmed or generated. We pull frames from the clip and run each one through the full forensic stack, then look for something a single image can never show you — whether the world stays consistent from one frame to the next.
Generated video has to solve a problem still images do not: staying consistent over time. That is where it fails first, and it is why we analyse a clip as a sequence rather than as a pile of separate pictures.
A pattern on a shirt, a logo, a background sign — they drift or redraw themselves between frames. Real objects stay exactly what they were.
Hair, cloth and water move plausibly for a second, then behave in a way no real material would. Contact between objects is where it shows most.
Across a longer clip a generated face subtly changes proportion — the distance between the eyes, the shape of the jaw — because each frame is reconstructed rather than filmed.
Real footage carries the signature of a physical camera: micro-shake, rolling shutter, focus breathing. Generated motion is unnaturally smooth or slides in ways a lens cannot.
Every extracted frame still carries the same statistical fingerprints we look for in stills — frequency profile, noise, texture coherence.
Real footage records a codec, a device and a capture profile. Generated files usually carry only an export signature, or nothing at all.
Full resolution, straight from the source. Screenshots and re-saved copies destroy most of the evidence we measure.
Three neural networks look at the image as a whole. Nine forensic methods examine it as a signal: frequency (FFT) analysis, noise pattern, pixel-level statistics, EXIF metadata, Error Level Analysis, texture coherence, colour distribution, Benford's Law and edge detection.
Every method reports separately, so you can tell whether the verdict rests on one weak signal or on nine that agree.
Most detectors give you one number from one model. We run twelve independent analyzers and weight them — three neural networks carry the majority, but nine forensic methods examine the file as a signal and can overrule them. Here is the exact weighting we use in production:
| Method | Weight in final score |
|---|---|
| Neural network #2 | 25% |
| Neural network #1 | 15% |
| Neural network #3 | 15% |
| EXIF metadata | 10% |
| Frequency (FFT) | 6% |
| Benford's Law | 6% |
| Noise pattern | 5% |
| Error Level Analysis | 4% |
| Texture coherence | 4% |
| Edge detection | 4% |
| Pixel statistics | 3% |
| Colour distribution | 3% |
These are our own numbers, not an industry estimate — every check run through FakeSec since launch. The split is closer than most people expect: roughly four in ten uploads really do turn out to be generated.
On our internal benchmark of 240,000 images (120,000 AI-generated, 120,000 real) the combined score reaches up to 98% on unedited, full-resolution files. That number drops, sometimes sharply, in four situations — and you should know them before trusting any result:
No detector on the market is 100% accurate — ours included. Treat a high score as strong evidence, not as proof. When a decision matters, look at which of the 12 methods agreed.
Video is harder than stills, and we will not pretend otherwise. Platform re-encoding destroys much of the forensic signal, so a clip downloaded from social media gives a weaker result than the original file. Short clips also give fewer frames to compare, which is why confidence rises with clip length.
Create a free account and get 3 checks. Full breakdown across all 12 methods, no card required.