Nvidia · Filed Apr 16, 2025 · Published Oct 22, 2026

Nvidia Files Patent to Clean Up Only the Pixels Your Car's Camera View Shows

Nvidia has filed a patent application for a car camera view that first works out which pixels you will actually see on screen, then fixes the picture for only those.

A car camera display marks how much the ground stretches around the vehicle to guide image sharpening. Drawing from patent filing US 2026/0330615 A1.
A car camera display marks how much the ground stretches around the vehicle to guide image sharpening.
See all 14 drawings from this filing ↓
Publication number US 2026/0330615 A1 US20260330615A1
Applicant NVIDIA CORPORATION
Filing date Apr 16, 2025
Publication date Oct 22, 2026
Inventors Yuzhuo Ren, Robin Brian Jenkin, Yining Deng, Niranjan Avadhanam, Srikar Reddy Narapureddy, Choong Gyo Jung
US classification 382/167
Examiner CHOI, TIMOTHY WING HO (Art Unit 2671)
Status when we published Waiting for an examiner (May 1, 2025)
Document 20 claims

What Nvidia's surround view patent does

Imagine you're backing into a tight parking spot while your dashboard screen shows a bird's-eye view of your car. The picture is stitched together from four wide-angle cameras, and it can look grainy, with odd colors and ghostly smears where something moves.

Nvidia's patent application changes the order of the work. Many existing systems clean up each camera's full image first, then pick the part you'll see. Nvidia flips that: it first works out which pixels will show up on your screen, then cleans up only those.

The thinking is simple. If one side of a camera's picture is bright and the other is dark, a fix tuned to the whole image can make the dark part you're looking at worse. Tuning for just what's on screen should give a clearer view, with less computing wasted on pixels nobody sees.

From the filing · CLAIM 1
generate at least one frame representing a reverse projection view of an environment surrounding an ego-machine based at least on reverse projecting from a two-dimensional ( 2 D) viewport to one or more frames of a plurality of frames of image data that represent at least partially overlapping views of the environment; …

Translation: The system stitches together overlapping camera feeds to build a unified view around the vehicle.

How Nvidia's reverse projection picks pixels

The system takes overlapping frames from cameras on a vehicle, for example four fisheye (extra-wide-angle) cameras at the front, left, rear and right. It models the surroundings as a 3D bowl. For each pixel in the 2D viewport (the virtual camera angle the driver picked), it traces a line back to the bowl and then to the matching camera pixel. That is the reverse projection: working backward from the screen to the camera images.

Image quality steps then run on that result. These include temporal noise reduction (averaging several frames to remove grain), color adjustment, tone mapping (balancing brightness and contrast), super resolution and anti-aliasing (smoothing jagged edges). Pixels outside the viewport are skipped.

The filing adds local tuning:

  • A magnification map measures how much each region is stretched or shrunk, using a dot-pattern test image or by counting how many camera pixels feed each screen pixel.
  • Stretched regions, usually far from the car, get stronger noise reduction and super resolution. Shrunk regions get downsampling and anti-aliasing, and can save work by projecting every other pixel and filling the gaps.
  • Where two cameras overlap, noise reduction is adjusted to cut ghosting. If one camera supplies the whole view, color matching across cameras can be switched off.
From the filing · THE ABSTRACT
Image quality processing may be performed on the pixels that are visible in the reverse projection view (e.g., instead of on the original image data).

Translation: The car cleans up only the pixels actually shown on screen to save processing power.

Why sharper parking views matter for drivers

If you drive a car with a bird's-eye parking view, you know the picture can be grainy at night and smeary where two cameras overlap. Nvidia's filing targets those flaws: it tunes the cleanup to what is on your screen, so a bright patch of sky or a dark wall outside your view stops skewing the colors. The filing also says skipping unseen pixels cuts the delay before the picture appears, which matters when you're creeping toward a curb.

Beyond cars, the claims list robots, remote operators who steer machines from a screen, and simulated vehicles used for testing. Nvidia sells chips and software for all of those, so a better way to prepare camera images fits its business. It is a filing, not a product, and the text names no car maker.

Nvidia's 97th filing we've tracked since May in our self-driving sensing race watch adds to a run that includes one on unlabeled object training and one on cameras in dim rain.

Editorial take

Claim 1 is short and wide. It covers a chip that builds a view by tracing each screen pixel back to the camera images, then runs image cleanup on the result. It never mentions noise removal, the 3D bowl or the dot-pattern map. Those details appear only in later claims.

As written, the claim reaches beyond cars to any machine carrying the cameras, which the filing says includes robots. Claim 16 even applies the same idea to a simulated car inside a simulation. If granted, claim 1 would cover a great deal of ground.

The specific tricks, like adjusting cleanup by how stretched each region is, live in the narrower claims. Claim 1 stakes out the basic order of operations: build the view first, clean it up second.

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The drawings

14 drawing sheets from US 2026/0330615 A1 · click any drawing to enlarge

How camera feeds are processed before reaching your screen, drawing sheet 1 from US 2026/0330615 A1
Sheet 1 How camera feeds are processed before reaching your screen
Dot patterns used to measure distortion across car cameras, drawing sheet 2 from US 2026/0330615 A1
Sheet 2 Dot patterns used to measure distortion across car cameras
Mapping camera stretch around a car to guide pixel cleanup, drawing sheet 3 from US 2026/0330615 A1
Sheet 3 Mapping camera stretch around a car to guide pixel cleanup
Comparing noise cleanup on raw camera feeds versus the display, drawing sheet 4 from US 2026/0330615 A1
Sheet 4 Comparing noise cleanup on raw camera feeds versus the display
Another view showing cleaner pavement after screen-level filtering, drawing sheet 5 from US 2026/0330615 A1
Sheet 5 Another view showing cleaner pavement after screen-level filtering
How the car screen cleans only its visible pixels, drawing sheet 6 from US 2026/0330615 A1
Sheet 6 How the car screen cleans only its visible pixels
Sensor placements across cars, delivery carts, and robots, drawing sheet 7 from US 2026/0330615 A1
Sheet 7 Sensor placements across cars, delivery carts, and robots
Key electronics and camera locations on an automated car, drawing sheet 8 from US 2026/0330615 A1
Sheet 8 Key electronics and camera locations on an automated car
Show the other 6 sheets
Onboard computer and sensor layout for autonomous vehicles and robots, drawing sheet 9 from US 2026/0330615 A1
Sheet 9 Onboard computer and sensor layout for autonomous vehicles and robots
Internal processing blocks of the central automotive vision chip, drawing sheet 10 from US 2026/0330615 A1
Sheet 10 Internal processing blocks of the central automotive vision chip
How servers send map updates and driving models to cars, drawing sheet 11 from US 2026/0330615 A1
Sheet 11 How servers send map updates and driving models to cars
Testing driving AI on server racks before road use, drawing sheet 12 from US 2026/0330615 A1
Sheet 12 Testing driving AI on server racks before road use
The AI model turning everyday questions into replies, drawing sheet 13 from US 2026/0330615 A1
Sheet 13 The AI model turning everyday questions into replies
Basic computer hardware that powers the surround view system, drawing sheet 14 from US 2026/0330615 A1
Sheet 14 Basic computer hardware that powers the surround view system
Browse all the drawings 14 drawing sheets
Patent filing page

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