HomeThe Science of ThoughtSuper-Recognisers Learn Faces by Looking at Them Differently

Super-Recognisers Learn Faces by Looking at Them Differently

Eye-tracking reveals how some people naturally excel at remembering faces - and why the rest of us don't.

Super recognizersHealth and life sciencesSome people - called "super-recognizers" - can process faces much better than other people. (Science Reader)
Some people - called "super-recognizers" - can process faces much better than other people. (Science Reader)
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The Science of Thought · Explore this series
November 17, 2025
Key Takeaways
  • Super-recognisers make more fixations and sample faces more broadly than typical viewers.
  • Their gaze patterns capture identity information of higher computational value.
  • Short training programs cannot replicate super-recogniser ability in average people.

Some people can glance at a stranger's face once and recall it perfectly years later. They're called super-recognisers, and researchers in Australia just figured out part of their secret.

Robin Kramer, a psychologist who works with facial recognition, writes in The Conversation how the team used eye-tracking technology to record exactly where super-recognisers look when learning a new face.

What is eye-tracking technology?

Eye-tracking uses infrared sensors or cameras to record exactly where a person's gaze lands on a screen or image, and for how long. It maps the sequence of fixation points – the spots the eye pauses on – to reveal what information someone actually processes, rather than what they say they look at.

They then reconstructed those gaze patterns to see what information they actually captured.

Key figure

9 DNNs

Separate AI neural networks all confirmed super-recognisers sample more useful face identity information

More Stops, Less Eye Contact

Super-recognisers make more fixations across a face - they stop and focus on more points - while spending less time staring at the eyes compared to typical viewers. Their attention spreads broadly, sampling information from the whole face rather than zeroing in on familiar landmarks.

The Australian researchers took this a step further. They compiled all the regions each participant viewed into a composite image, then tested whether those composites contained enough useful identity information to distinguish between photos of the same person versus different people.

rspb.2025.2005.f001
Quantifying computational value of fixation-sampled face information. (A) Using gaze-contingent eye-tracking data from face learning [25], we (B) generated retinal information composites from individual fixations using retinal filter models [29,30]. (C) DNNs extracted face-identity codes from these composites and full images (same or different identity) to compute similarity scores. Credit: The authors

Super-recognisers accessed more valuable information. Even after accounting for the fact that they simply looked at more of the face, the quality of their information was still higher.

Why Training Doesn't Work

What makes this significant is that super-recognisers look at faces differently from the very earliest stages of viewing. This ability appears to have a strong genetic basis, which explains why short training programs consistently fail to improve average people's face recognition skills.

Our study shows that active visual exploration behaviour when learning new faces is functional for the task of face recognition.

Quote from the November 25 Research Paper

There's an exception: forensic facial examiners. These professionals perform just as well as super-recognisers when comparing unfamiliar face images, presumably because of extensive training focusing on useful features like ears and facial marks. That lengthy process takes years, not weeks.

facial recognition study results

Super-recognizers sample more retinal information during face learning. Top panel shows composite images by spotlight size and sampling type. Bottom panel shows nine DNNs achieved higher identity matching accuracy (AUC scores) across six spotlight sizes when using super-recognizer-sampled information versus typical viewers or random generation. Credit: The authors

So there may be two types of face experts - those with natural ability and those with intensive training. Or examiners might pursue this career precisely because they start with innate talent.

The other extreme exists too. People who struggle to recognize even close friends and family are called prosopagnosic or face blind, either from birth or after brain injury.

Although researchers have known about super-recognisers for nearly two decades, studies like this one are still uncovering what makes them excel.

The way someone explores a face during those first few seconds of learning appears to play a crucial role in how well they'll recognize that person later - whether they're naturally gifted or somewhere in the middle with the rest of us.

Fact Check: Claim-by-Claim Verification Verified

All claims verified against the primary paper in Proceedings of the Royal Society B, UNSW press materials, and independent sources. Study methodology, key findings, and broader context (genetics, training, prosopagnosia) all confirmed. Old inline fact-check block removed.

1 Supported
Super-recognisers can recall faces seen once, years later
Super-recognisers memorize and recall thousands of faces seen briefly, even after years or with changes like aging or disguise (Wikipedia). "Perfectly" is slightly hyperbolic but captures the essence.
2 Supported
Australian researchers used eye-tracking on super-recognisers
UNSW Sydney team tracked eyes of 37 super-recognisers vs. 68 controls viewing faces (UNSW news, PubMed).
3 Mostly supported
Super-recognisers make more fixations, spend less time on eyes
They make more fixations and explore broadly; quality higher even after controlling volume. Prior studies note broader sampling patterns (UNSW, Journal of Vision).
4 Supported
9 deep neural networks confirmed the finding
Eye-tracking-recreated views fed to 9 DNNs for identity matching; super-recogniser patterns yielded better accuracy (UNSW, PubMed).
5 Supported
Information quality higher even after accounting for more looking
AI performed better on super-recogniser gaze data even when information amount was equalized (UNSW, Brighter Side).
6 Supported
Face recognition has strong genetic basis
Twin studies show face recognition is highly heritable and specific to faces rather than general intelligence (PNAS 2010, Wikipedia).
7 Mostly supported
Short training programs fail to improve face recognition
Short programs produce little reliable improvement. Some small positive effects exist but fall far short of creating super-recogniser-level ability (UNSW).
8 Supported
Forensic facial examiners match super-recognisers via years of training
Examiners perform equivalently on unfamiliar face-matching tasks due to extensive training on features like ears and facial marks (PMC, PNAS).
9 Supported
Prosopagnosia can be congenital or from brain injury
Face blindness occurs in developmental (congenital) and acquired (injury-related) forms (PMC).
10 Supported
Super-recognisers known for nearly two decades
Term coined in 2009 by Harvard/UCL researchers (Harvard Gazette). From the article's 2025 publication date, that's ~16 years — "nearly two decades" is accurate.
11 Supported
Published in Proceedings of the Royal Society B

Commentary

  • "Recall perfectly" is slightly hyperbolic — super-recognisers excel but are not infallible in all scenarios.
  • The study used still images in lab tasks, not real-world dynamic encounters, though the pattern is consistent across multiple studies.
  • The framing of "two types of face experts" (innate vs trained) is a simplification; many forensic examiners may start above average ability.

Sources used for verification

Academic/Peer-reviewed:

Other reliable sources:

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