Samsung · Filed Jul 14, 2026 · Published Nov 5, 2026

Samsung Files Patent for Faster Tracking of Real Objects in AR Apps

Samsung's patent application describes a way for AR software to work out how a real object is positioned and tilted without redrawing it over and over to check its guess.

A virtual outline placed around a real object in a room helps a camera measure its exact location and angle. Drawing from patent filing US 2026/0350835 A1.
A virtual outline placed around a real object in a room helps a camera measure its exact location and angle.
See all 12 drawings from this filing ↓
Publication number US 2026/0350835 A1 US20260350835A1
Applicant Samsung Electronics Co., Ltd.
Filing date Jul 14, 2026
Publication date Nov 5, 2026
Inventors Weiming LI, Qiang WANG, HYUN SUNG CHANG, JIYEON KIM, SUNGHOON HONG, Bao He
US classification 345/660
Status when we published Waiting for an examiner (Jul 14, 2026)
Parent application is a Continuation of 18072974 (filed 2022-12-01)
Document 20 claims

What Samsung's object-tracking patent does

Today, when an AR app needs to know exactly how a real object sits in front of your camera, the usual method is slow: guess the position, redraw the object on screen, compare the drawing to the photo, and repeat. The filing says that redrawing eats computing power and adds lag, which can spoil the experience.

Samsung's approach skips the redrawing. The system picks out landmark points on an object, such as the corner of a table, and uses a small neural network to nudge each point to where it really is. From those corrected points it works out the object's position and tilt, then loops a few times to tighten the answer.

There is also a pre-step. Your camera photo is first restyled to look like the computer-made images the system was trained on, which helps it cope with real-world pictures.

From the filing · CLAIM 1
… determining modified key point information based on a key point feature map corresponding to the key point information; and estimating an object posture of an object in the image, based on the modified key point information.

Translation: It refines spatial data using a feature map to figure out how an object is positioned.

How the key-point nudging loop works

The system starts with key points: distinctive spots on an object, like the corner of a table or the edge of a plate. A detector network (a neural network trained to spot things in images) reports where each point is and whether it is visible. Points hidden behind the object itself or something else are thrown out.

Next comes the correction step. For each remaining point, the system crops a small patch of the image's internal data (the filing gives 16 by 16 as an example) and feeds it to a refinement network. That network does offset regression, meaning it predicts a small x and y adjustment, and the system adds that adjustment to the original point.

The corrected 2D points are matched against a stored 3D model of the object, such as a CAD file or a scan. A standard math method called perspective-n-point then works out the object's six degrees of freedom: three numbers for where it sits and three for how it is rotated.

The result can be fed back in. The system projects the 3D model's points through the estimated position and the camera's built-in properties to update the key points, then corrects and estimates again. It stops when the points barely move between rounds or a preset number of rounds is reached. A separate claim covers the restyling step: converting the photo to the look of the synthetic training images before any points are found.

Why skipping the redraw step matters for AR

If you have ever watched a digital label or character slide off the thing it was supposed to stick to, you have seen the issue this filing addresses. AR only works when virtual content stays lined up with a real object as you or the object moves, and the filing says the slow redraw-and-compare step in older methods adds delay that hurts the experience.

The filing says the method could run on phones, tablets, game consoles, wearables and vehicle terminals, and that it can handle objects moving through a scene. It reports no speed numbers, so how much faster it would be is still an open question. The restyling step goes after a separate issue: models trained on computer-made images can stumble on real photos.

Samsung's 81st filing we've tracked in the AR glasses race since May follows work like the folding camera patent and the passthrough alignment fix.

Editorial take

The delay is real. An AR overlay that trails a moving object by even a moment looks wrong, and the filing points to the usual redraw-and-compare loop as a major source of that lag. Cutting that loop out goes straight at the cost.

The size of the fix is harder to judge, because the document gives no timing or accuracy results. The core claim is broad: find points, correct them, and estimate the object's position and tilt.

The photo restyling step goes after a smaller but familiar headache, since software trained on computer-generated pictures meets real photos that look different. It is a sensible answer to a real problem. The proof would be speed measurements that this filing does not offer.

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The drawings

12 drawing sheets from US 2026/0350835 A1 · click any drawing to enlarge

Steps for estimating an object pose from image points, drawing sheet 1 from US 2026/0350835 A1
Sheet 1 Steps for estimating an object pose from image points
Restyling a camera view before calculating an object pose, drawing sheet 2 from US 2026/0350835 A1
Sheet 2 Restyling a camera view before calculating an object pose
How training and running the image restyling system works, drawing sheet 3 from US 2026/0350835 A1
Sheet 3 How training and running the image restyling system works
Correcting detected object points to calculate three dimensional pose, drawing sheet 4 from US 2026/0350835 A1
Sheet 4 Correcting detected object points to calculate three dimensional pose
Inside the neural network that adjusts object point positions, drawing sheet 5 from US 2026/0350835 A1
Sheet 5 Inside the neural network that adjusts object point positions
A focused visual map centered on a single target point, drawing sheet 6 from US 2026/0350835 A1
Sheet 6 A focused visual map centered on a single target point
Repeatedly refining object points to track real world position, drawing sheet 7 from US 2026/0350835 A1
Sheet 7 Repeatedly refining object points to track real world position
Multiple localized feature patches used for precise tracking, drawing sheet 8 from US 2026/0350835 A1
Sheet 8 Multiple localized feature patches used for precise tracking
Show the other 4 sheets
How the AI repeatedly tunes 3D position estimates, drawing sheet 9 from US 2026/0350835 A1
Sheet 9 How the AI repeatedly tunes 3D position estimates
A digital 3D box fitted around a room object, drawing sheet 10 from US 2026/0350835 A1
Sheet 10 A digital 3D box fitted around a room object
Steps and components for detecting object position, drawing sheet 11 from US 2026/0350835 A1
Sheet 11 Steps and components for detecting object position
Hardware inside a device running the tracking system, drawing sheet 12 from US 2026/0350835 A1
Sheet 12 Hardware inside a device running the tracking system
Browse all the drawings 12 drawing sheets
Patent filing page

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