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Used to get a detailed representation of the environment; enables virtual objects to interact with the real world. Example: Placing virtual furniture in a room.

Used to identify flat surfaces in the real environment for placing AR objects. Example: Games that use floors or tables as gameplay areas.

Used for tracking the device's position and orientation in space while mapping the environment. Example: Navigation apps that overlay directions onto the real world.

Apple's framework for AR development; provides features like plane detection and face tracking. Example: Creating AR experiences on iOS devices.

Google's platform for building AR experiences; supports environmental understanding and motion tracking. Example: AR applications on Android devices.

An AR software development kit that provides image recognition and supports a wide range of devices. Example: Educational AR apps that animate from textbook images.

A game engine that is widely used for AR development, with support for visual scripting and real-time rendering. Example: Interactive AR games and simulations.

Creating digital representations of objects that can be used in AR environments. Example: Fashion apps that show how clothing would look on a person.

Writing code to control how graphics are rendered; creates realistic lighting and textures for AR objects. Example: Reflective virtual surfaces that react to real-world light.

Using visual markers to anchor virtual content to the real world. Example: Educational AR books that display 3D content when a page is scanned.

Recognizing and interpreting user gestures to interact with AR content. Example: Swiping in mid-air to navigate through virtual menus.

Improves performance by not rendering objects that are blocked by other objects. Example: Virtual characters hiding behind real-world obstacles.

Shooting invisible rays from a point to detect intersections with virtual or real-world surfaces. Example: Shooting games where players aim at virtual targets in a real environment.

Analyzing real-world lighting conditions to apply similar lighting to virtual objects. Example: Virtual furniture appearing with realistic shadows in a room.

Simulating real-world physics for AR objects to enhance realism. Example: Virtual dominos that topple over when pushed.

Interpreting and processing spatial data to contextualize AR experiences. Example: An AR app that labels real-world objects when viewed through the camera.

Detecting and tracking human faces to overlay digital content. Example: AR filters on social media platforms that add effects to users’ faces.

Keeping track of the device's movements to maintain the positional accuracy of AR objects. Example: AR gaming where player movements are mirrored by avatars in the game.

Fixed points in the real world to which AR content is bound, ensuring consistent positioning. Example: Historical information presented as virtual plaques at landmarks.

Identifying and processing images from the real world to trigger AR experiences. Example: Museum displays that trigger AR overlays when artworks are scanned by a device.

Storing and retrieving AR content on the cloud to enable shared experiences. Example: Multiplayer AR games where users can see each other's actions in real-time.

Using speech recognition to control AR applications. Example: An AR tutorial that progresses with voice prompts like 'Next' or 'Repeat'.

Creating AR content that can be simultaneously experienced by multiple users. Example: AR escape room games where players work together to solve puzzles.

Designing interactive elements that fit within the 3D space of AR. Example: Floating menus or holographic buttons that users can interact with.

Displaying the combined feed of real and virtual worlds seamlessly to the user. Example: Live sports events where the statistics are overlaid on the broadcast.

Measuring the distance from the device to surfaces in the environment. Example: Interior design apps that accurately measure and model rooms.

Determining the device's location in the world for accurate AR content placement. Example: Historical AR tours that provide information depending on the user's location.

Using AI to enhance object recognition and user interaction in AR. Example: AR translation apps that convert text in real-world images to another language.

Creating AR apps that can run on various devices and operating systems. Example: Educational AR apps that work both on Android and iOS tablets.