Qualcomm · Filed Feb 28, 2025 · Published Sep 3, 2026 · verified — real USPTO data

Qualcomm Patents Technology That Shows AR Content Based on Where You Look

Put on an AR headset in a busy city block and you could be buried in digital pop-ups from every storefront within range. Qualcomm's new patent describes a system that uses where you are, what you're looking at, and your own preferences to decide which overlays you actually see.

A person wearing an augmented reality headset views virtual content, such as palm trees, overlaid onto their real-world view. Drawing from patent filing US 2026/0260435 A1.
A person wearing an augmented reality headset views virtual content, such as palm trees, overlaid onto their real-world view.
See all 14 drawings from this filing ↓
Publication number US 2026/0260435 A1
Applicant QUALCOMM Incorporated
Filing date Feb 28, 2025
Publication date Sep 3, 2026
Inventors Varun Amar REDDY, Diyan TENG, Mehul SOMAN, Rashmi KULKARNI
CPC classification 345/633
Grant likelihood Medium
Examiner MAZUMDER, TAPAS (Art Unit 2615)
Status Docketed New Case - Ready for Examination (Mar 19, 2025)
Document 20 claims

What Qualcomm's XR content filter actually does for you

Every time you put on an AR headset and look around, the device has to decide which of potentially dozens of nearby digital objects to show you. Too many at once and the view becomes unreadable. Too few and the whole point of AR disappears.

Qualcomm's patent describes a method that combines three things: your physical location, the direction you're facing (your field of view), and a personal list tied to your account. Items that are far from your gaze or that don't match your preferences get filtered out before they ever reach your display.

The result is that your AR headset shows you a curated slice of the digital layer around you, not everything broadcasting nearby. Qualcomm's ongoing push into XR chip and software systems makes this kind of filtering increasingly practical as headsets become more mainstream.

From the filing · CLAIM 1
… determine a field of view (FOV) associated with the XR device; determine contextual information based on a relationship between the FOV and respective positions associated with the plurality of items of XR content; …

Translation: The system calculates what you are currently looking at to understand your surroundings.

How position, field of view, and user lists combine

The system starts by pinpointing the XR device's location, then pulls a list of all digital content items associated with that area. That could be product labels in a store, navigation markers on a street, or interactive objects in a mixed-reality game.

Next, the device calculates its field of view (FOV), meaning the cone of space the user is currently looking into. The system uses the relationship between that cone and the positions of all those nearby content items to build contextual information: essentially a score or tag for each item based on whether it's directly ahead of you, off to one side, or completely behind you.

That contextual data is then weighed against a user-specific list, which could encode preferences, permissions, subscriptions, or categories the user has blocked. Only the items that pass both filters make it into the final subset sent to the display.

  • Step 1: Get device position
  • Step 2: Identify all nearby XR content candidates
  • Step 3: Measure angular relationship between each item and the user's current gaze direction
  • Step 4: Cross-reference against the user's personal list
  • Step 5: Deliver the filtered subset to the headset display
From the filing · THE ABSTRACT
… determining a subset of the plurality of items of XR content based on contextual information and a list associated with a user of the XR device; and providing the subset of the plurality of items of XR content for display at the XR device.

Translation: It filters the virtual objects based on your personal preferences and shows only what is relevant.

What this means for AR glasses in crowded spaces

For you as an AR headset user, this is the difference between a display that feels like a useful heads-up and one that feels like pop-up spam. Without some form of filtering, any business or content publisher near your location could push overlays into your view. A system like this puts a personal preference layer in front of that flood.

The practical stakes rise as AR glasses move from industrial settings into everyday public spaces: shopping malls, airports, city streets. Who controls what you see in AR is going to be a real design and policy question, and patents like this one sketch out where the filtering logic might live, inside the device itself rather than handed entirely to content publishers.

Qualcomm's 34th filing we've tracked in the AR glasses race since July follows work like blending digital images into real lighting and widening view via a nearby screen.

Editorial take

If you wear AR glasses past a row of shops, you should not have to wade through a wall of floating promotions you never wanted. This system filters what appears based on where you're looking and a personal list you control, which means the glasses show you things you might actually care about instead of whatever nearby businesses decided to push.

The personal list is the key detail here. It acts as a gate you set, so the experience bends toward your preferences rather than toward whoever owns the storefront or the content platform.

How well this works in practice depends on things the filing doesn't settle, like how easy the list is to build, how quickly the filtering happens, and whether anyone else gets to override your choices. The idea is sound and the need is real; execution is where it will be won or lost.

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The drawings

14 drawing sheets from US 2026/0260435 A1 · click any drawing to enlarge

Patent filing page

Source. Full patent text and figures from the official USPTO publication PDF.