Snap Inc.

Rajan Vaish

Andrés Monroy-Hernández

Yu Jiang Tham

Brian Anthony Smith

Sven Kratz

Ava Robinson

Fannie Liu

Youjean Cho

Lei Zhang

Ilteris Kaan Canberk

Daekun Kim

Ana Maria Cardenas Gasca

Tsung-Yu Tsai

Chen Ji

Timothy Chong

Olivia Seow

Tianying Chen

Joanne Leong

Xingyu Liu

Hanseul Jun

Hemant Surale

Terek Judi

Ella Dagan Peled

Karen Stolzenberg

David Meisenholder

Shin Hwun Kang

Andrés Monroy-HERNÁNDEZ

Andres Monroy-Hernandez

Aspects of the present disclosure involve a system comprising a computer-readable storage medium storing at least one program, method, and user interface to facilitate a camera sharing session between two or more users. A camera sharing session is initiated based on session configuration information comprising a user identifier of a user permitted to control image capturing at a camera communicatively coupled to a first device. A trigger request is received from the second device and in response, an image capture, which results in at least one image, is triggered at the camera and the image is transmitted to the second device.

Request queue for shared control of camera device by multiple devices

A system captures via one or more sensors of a computing device, data of an environment observed by the one or more sensors at a first timeslot, and stores the data in a data store as a first portion of a timelapse memory experience. The system also captures, via the one or more sensors of a computing device, data of the environment observed by the one or more sensors at a second timeslot, and stores the data in a data store as a second portion of the timelapse memory experience. The system additionally associates the timelapse memory experience with a memory experience trigger, wherein the memory experience trigger can initiate a presentation of the timelapse memory experience.

Timelapse re-experiencing system

A wearable device comprises a frame and a pair of optical elements integrated into the frame. The wearable device further comprises an inward-facing display component coupled to the frame, the inward-facing display component to present augmented reality content within a real-world environment that is visible via the pair of optical elements. The wearable device also comprises an outward-facing display component coupled to the frame. The outward-facing display component presents a message.

Smart glasses with outward-facing display

A two-dimensional element is identified from one or more two-dimensional images. A volumetric content item is generated based on the two-dimensional element identified from the one or more two-dimensional images. A display device presents the volumetric content item overlaid on a real-world environment that is within a field of view of a user of the display device.

Generating immersive augmented reality experiences from existing images and videos

Described are virtual AR interfaces for generating a virtual rotational interface for the purpose of controlling connected IoT devices using the inertial measurement unit (IMU) of a portable electronic device. The IMU control application enables a user of a portable electronic device to activate a virtual rotational interface overlay on a display and adjust a feature of a connected IoT product by rotating a portable electronic device. The device IMU moves a slider on the virtual rotational interface. The IMU control application sends a control signal to the IoT product which executes an action in accordance with the slider position. The virtual rotational interface is presented on the display as a virtual object in an AR environment. The IMU control application detects the device orientation (in the physical environment) and in response presents a corresponding slider element on the virtual rotational interface (in the AR environment).

Virtual AR interfaces for controlling IoT devices using mobile device orientation sensors

Input indicative of a selection of volumetric content for presentation is received. The volumetric content comprises a volumetric representation of one or more elements of a real-world three-dimensional space. In response to the input, device state data associated with the volumetric content is accessed. The device state data describes a state of one or more network-connected devices associated with the real-world three-dimensional space. The volumetric content is presented. The presentation of the volumetric content includes presentation of the volumetric representation of the one or more elements overlaid on the real-world three-dimensional space by a display device and configuring the one or more network-connected devices using the device state data.

Multisensorial presentation of volumetric content

A collaborative session (e.g., a virtual time capsule) in which access to a collaborative object and added virtual content is selectively provided to participants/users. In one example of the collaborative session, authentication of the collaborative object is performed by all of the users to complete the collaborative session. Each user authenticates the collaborative object, such as using a stamping gesture on a user interface of a client device or in an augmented reality session. User specific data is recorded with the stamping gesture to authenticate the collaborative object and the associated virtual content. In an example, user specific data may include device information, participant profile information, or biometric signal information. Biometric signal information, such as a fingerprint from a mobile device or a heart rate received from a connected smart device can be used to provide an authenticating signature to the seal.

Authenticating a selective collaborative object

Systems and methods are described for sending a snapshot message using an electronic eyewear device by a first user capturing an image, identifying a physical marker in the captured image, and determining that the physical marker in the captured image has been within a field of view of the electronic eyewear device for a predetermined amount of time. A 3D snapshot including an object is captured and, each time the identified object appears in a field of view of the electronic eyewear device, a representation of the object is sent for display to a second user as if the real object was sent. The representation of the object may include the snapshot image, the object extracted from the snapshot image, a stored representation of the object, augmented reality content representing the object, etc.

Snapshot messages for indicating user state

A volumetric content presentation system includes a head-worn display device, which includes one or more processors, and a memory storing instructions that, when executed by the one or more processors, configure the display device to access AR content items that correspond to either real-world objects or virtual objects, mix and match these AR content items, and present volumetric content that includes these mixed and matched AR content items overlaid on a real-world environment to create a new AR scene that a user can experience.

Mixing and matching volumetric contents for new augmented reality experiences

Eyewear configured to control an unmanned aerial vehicle (UAV). In one example, a user interacts with the eyewear to generate control signals that are transmitted to the UAV to control the flight path, speed, orientation, and to communicate other instructions to the UAV. An input of the eyewear is controlled by the user to control the UAV, such as a touchpad, a microphone, a head movement tracker and a camera. The user is also able to configure and customize the eyewear to send specific control signals to the UAV as a function of user actions. This includes specific head movements and head gestures of the user as a method of controlling the UAV. This allows the user to control the UAV in a more natural and convenient way.

Eyewear controlling an UAV

Augmented reality (AR) systems, devices, media, and methods are described for capturing and presenting effort put into generating a handcrafted AR experience. AR object generation data is captured during the generation of a handcrafted AR object. The AR object generation data is then processed to generate proof of effort data for inclusion with the handcrafted AR object. Examples of proof of effort include a time lapse view of the steps taken during generation of the AR object and statistics such as total time spent, number of images or songs considered for selection, number of actions implemented, etc.

Handcrafted augmented reality effort evidence

Collaborative sessions in which access to added virtual content is selectively made available to participants/users. A participant (the host) creates a new session and invites participants to join. The invited participants receive an invitation to join the session. The session creator (i.e., the host) and other approved participants can access the contents of a session. The session identifies a new participant when they join the session, and concurrently notifies the other participants in the session that a new participant is waiting for permission to access the added virtual content. The host or approved participants can set up the new participant with permissions for accessing added virtual content.

Selective collaborative object access

Systems and methods herein describe generating automatic reactions in an augmented reality messenger system. The claimed systems and methods generate a contextual trigger defining a set of conditions at a first computing device, detect at least one of the set of conditions has been satisfied, cause presentation of an augmented reality content item at a second computing device, generate a user reaction in response to the presentation of the augmented reality content item and transmit the user reaction to a first computing device.

Augmented reality auto reactions

Augmented reality (AR) systems, devices, media, and methods are described for generating AR experiences including interactions with virtual or physical prop objects. The AR experiences are generated by capturing images of a scene with a camera system, identifying an object receiving surface and corresponding surface coordinates within the scene, identifying an AR primary object and a prop object (physical or virtual), establishing a logical connection between the AR primary object and the prop object, generating AR overlays including actions associated with the AR primary object responsive to commands received via a user input system that position the AR primary object adjacent the object receiving surface responsive to the primary object coordinates and the surface coordinates within the scene and that position the AR primary object and the prop object with respect to one another in accordance with the logical connection, and presenting the generated AR overlays with a display system.

Augmented reality prop interactions

A method for detecting full-body gestures by a mobile device includes a host mobile device detecting the tracked body of a co-located participant in a multi-party session. When the participant's tracked body provides a full-body gesture, the host's mobile device recognizes that there is a tracked body providing a full-body gesture. The host mobile device iterates through the list of participants in the multi-party session and finds the closest participant mobile device with respect to the screen-space position of the head of the gesturing participant. The host mobile device then obtains the user ID of the closest participant mobile device and broadcasts the recognized full-body gesture event to all co-located participants in the multi-party session, along with the obtained user ID. Each participant's mobile device may then handle the gesture event as appropriate for the multi-party session. For example, a character or costume may be assigned to a gesturing participant.

Growing community of inventors

Beverly Hills, CA, United States of America

Rajan Vaish