Find out whether a photograph has been edited — objects removed or added, regions cloned, a face retouched, two pictures spliced together. This is a different question from “was it made by AI”, and it needs different evidence: not generation traces, but places where one part of the file has a different history from the rest.
An edited photo is a file with an inconsistent past. The camera wrote it once; an editor rewrote parts of it. Every method below hunts for that inconsistency rather than for anything that looks wrong to the eye.
Each save re-compresses the image. An area pasted in later has been through a different number of saves and returns a different error level — the core idea behind Error Level Analysis, and the strongest single signal here.
The clone stamp copies a region. Statistically identical patches appearing in two places almost never happen in a real photograph.
Sensor noise is uniform across a genuine frame. Retouched skin, a removed object or a pasted sky breaks that uniformity.
A cut-out object has a boundary sharper than the lens could produce, often with a one-pixel halo where it was masked.
EXIF frequently keeps the editor's name and the modification timestamp — and a missing capture block on a supposedly original photo is a signal in itself.
A spliced object brings its own shadow direction and vanishing point. Our edge and colour analyzers pick up the mismatch.
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.
One honest caveat specific to this check: every photo that has been resized, filtered or exported by a phone gallery is technically “edited”. What matters is whether editing is localised to a region — that is what indicates manipulation rather than routine processing. The per-method breakdown shows you which it is.
Create a free account and get 3 checks. Full breakdown across all 12 methods, no card required.