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In a Nutshell

  • People show stable, personally distinctive eye-movement patterns, called “attentional fingerprints,” that stay consistent across different scenes and different days.
  • Meanings and conceptual links a person attaches to objects predict where they look better than visual appearance alone does.
  • A language model that has never seen a single image outperformed a vision-based model at explaining the uniquely individual part of gaze, the piece that sets one person apart from another, a sign that abstract meaning steers those personal differences.

Walk into a crowded airport, a public swimming pool, or a car repair shop, and the eyes immediately get to work: scanning, darting, landing on some things and skipping right past others. A common assumption is that whatever is brightest or most dramatic in a scene grabs the gaze. A new study says something more personal is going on. The way each person explores a new place is as distinctive and steady as a fingerprint, shaped by the meanings and concepts they carry around in their head.

Researchers at Dartmouth College and the University of California, San Diego, writing in the Proceedings of the National Academy of Sciences (PNAS), had 61 people put on virtual reality headsets and freely explore 100 immersive, 360-degree scenes, places like airports, auto shops, and public pools, while eye-tracking recorded every glance. Two people looking at the exact same scene often looked at very different parts of it, and those differences were not random. Each person’s pattern held steady, showing up again across completely different environments and across testing sessions days apart. Each viewer, it turned out, had a personal way of exploring the visual world, a stable “attentional fingerprint.”

More surprising was what drove those fingerprints. It came down not to how things look, but to what things mean.

How Meaning Shapes the Attentional Fingerprint

To find out what guided people’s eyes, the team built computer models that predicted where each person would look using three kinds of information: the basic layout of a scene, the visual appearance of its objects, and the abstract meaning of what was in it. For that last piece, they used a large language model trained on text. Models like this learn how words and concepts relate through enormous amounts of writing, so they grasp that a flag and a military jet are connected by the idea of patriotism, even though the two look nothing alike.

Here is where things got interesting. The language model, which gets no visual input and never touches a single pixel, was not the best at predicting gaze across the board; the vision model held that edge. Where the language model pulled ahead was in explaining the uniquely individual part of gaze, the part that set one person’s viewing apart from everyone else’s. Spatial layout mattered. Visual features mattered. But when it came to the deeply personal side of how someone looks at the world, meaning came out on top.

That result challenges a long-standing view of how attention works. For decades, researchers mostly explained where people look by what stands out visually: bright colors, sharp edges, movement, faces. This work doesn’t set those factors aside, but it shows they miss the personal layer of how a given person sees.

How the Study Worked

Each of the 61 participants wore a VR headset with built-in eye tracking that logged exactly where they looked, moment by moment, for 16 seconds per scene. Because the scenes were full 360-degree spaces, participants could turn their heads and bodies to look anywhere, giving each person plenty of room to show their own habits.

To build the meaning-based model, online raters wrote detailed descriptions of small patches within each scene, sorted into three levels of depth: a plain label (“a hat”), a description with context (“a hat that is on her head”), and a deeper read on purpose or function (“a hat that is on her head and could be keeping the sun from her eyes”). Feeding these richer descriptions into the language model made it noticeably better at predicting where individuals looked, which confirmed that deeper meaning, not just object names, was doing the work.

As a check, the researchers scrambled the descriptions so the words stayed just as rich but no longer matched the correct part of the scene. Accuracy fell apart, dropping even below the plain-label version. That ruled out the idea that the model was simply riding on longer or fancier text.

About half of the participants came back a week later to explore 40 brand-new scenes. Their individual patterns held. A model trained on a person’s first-session data could still identify that person’s gaze in the second session. Spatial layout alone could not manage that; the visual and, above all, the meaning-based models kept each fingerprint intact over time.

Timing told its own story. In the first couple of seconds, spatial habits led, with people glancing toward the center of a scene, a well-documented tendency. Visual features kicked in soon after, as viewers picked out specific objects. Meaning came on more slowly, building across the full 16 seconds and eventually overtaking both spatial and visual factors. That order makes sense, since it takes a beat to grasp what a scene is about before deeper associations can steer the next glance.

Participants in a Dartmouth study explored real-world scenes in virtual reality while the headset tracked their gaze. Where each person looked, and for how long, was distinctive enough that an AI model could tell participants apart by connecting the objects they focused on thematically and determining the personal meaning they held. In follow-up tests, the AI model correctly predicted what would grab participants' attention in new settings.
Participants in a Dartmouth study explored real-world scenes in virtual reality while the headset tracked their gaze. Where each person looked, and for how long, was distinctive enough that an AI model could tell participants apart by connecting the objects they focused on thematically and determining the personal meaning they held. In follow-up tests, the AI model correctly predicted what would grab participants’ attention in new settings. (Credit: Caroline Robertson/Dartmouth)

What an Attentional Fingerprint Could Reveal

Researchers say these results open up questions well beyond the lab. If gaze reflects stable priorities about meaning, future studies might use it to explore how different groups organize what matters to them, though the paper frames this as a direction to pursue rather than a proven tool. One example the authors point to is autism, in which differences in attention are well documented. Future work could test whether those differences trace back to visual-level or meaning-level factors. That question is wide open: no such test has been run, and the paper takes no side on the answer.

Privacy is worth a mention too. Gaze patterns here were distinctive enough to tell participants apart within this specific dataset, but the authors stress that this is not the same as eye movements working as a reliable ID the way a fingerprint or a face scan does. Showing a personal signature inside a controlled study is a long way from picking someone out of a crowd. That gap matters as VR and augmented-reality systems with eye tracking spread into daily life.

One broader idea, which researchers say has been studied little, is that each person moves through the world with a private map of meaning, a set of priorities about what things are and how they connect, quietly steering attention from the moment they step into a new place. Where the eyes land depends less on what stands out in a scene and more on what already matters to the person looking.


Paper Notes

Limitations

Several open questions remain, the authors note. Their analyses tracked how meaning-based influences grew over a viewing session but did not capture the fine-grained, moment-to-moment order of eye movements, such as how a viewer shifts between different priorities mid-scene. The work also relied on two specific AI models, BERT for language and ViT for vision, and the authors say future research should test gaze prediction across a wider range of AI designs. They add that multimodal models, trained on both images and text, might beat a language model alone. They also caution that the meaning-based patterns found here should not be read as direct measures of a person’s beliefs, values, or preferences, since many factors, including experience and context, likely shape them. And the individual “conceptual priority map” visualizations are described as a tool for generating hypotheses, not a validated diagnostic.

Funding and Disclosures

Funding came from the Nancy Lurie Marks Family Foundation and the Neukom Institute for Computational Science. One author was supported by a grant from the National Institute of Mental Health (grant number 1F99NS135812). The authors declare no competing interests. All code and data are publicly available through Code Ocean.

Publication Details

Authors: A. J. Haskins (University of California, San Diego; Dartmouth College), Katherine O. Packard (Dartmouth College), and Caroline E. Robertson (Dartmouth College)
Journal: Proceedings of the National Academy of Sciences of the United States of America (PNAS)
Paper Title: “Conceptual priorities shape individual gaze patterns during naturalistic visual attention”
Published: June 12, 2026
Volume: 123, No. 24
DOI: 10.1073/pnas.2604369123

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