Abstract: An approach to sensor data is based on scenes. One aspect concerns a computer-implemented method for specifying and obtaining a variety of sensor data and processed sensor data related to a scene. The method incorporates a Scene-based API that uses SceneModes and SceneData. An application requesting sensor data communicates a SceneMode to a group of one or more sensor devices and/or sensor modules via the Scene-based API. The SceneMode determines the SceneData to be captured or provided by the sensor group, which typically includes different types of sensor data related to the Scene and also further processed or analyzed data. The application receives the SceneData from the sensor group via the Scene-based API, with the SceneData organized into SceneShots which are samples of the Scene.

Abstract: The present disclosure generally relates to account recovery. An example method includes, at a computer system in communication with a display generation component and one or more input devices: performing a recovery contact set up process including providing a notification to a contact; after performing the recovery contact set up process, receiving, via the one or more input devices, a request to initiate an account recovery process; in response to the request to initiate the account recovery process and without providing a request to the contact, displaying, via the display generation component, a recovery code interface for receiving a set of recovery credentials; while displaying of the recovery code interface, receiving the set of recovery credentials; in accordance with a determination that the recovery credentials are valid, performing a recovery function; and in accordance with a determination that the recovery credentials are not valid, forgoing performing the recovery function.

Abstract: Optimally-sized bounding boxes for scene data including procedurally generated geometry are determined by first determining whether an estimated bounding box including the procedural geometry is potentially visible in an image to be rendered. If so, the procedural geometry is generated and an optimal bounding box closely bounding the procedural geometry is determined. The generated procedural geometry may then be discarded or stored for later use. Rendering determines if the optimal bounding box is potentially visible. If so, then the associated procedural geometry is regenerated and rendered. Alternatively, after the estimated bounding box is potentially visible, the generated procedural geometry may be partitioned into subsets using a spatial partitioning scheme. A separate optimal bounding box is determined for each of the subsets. During rendering, if any of the optimal bounding boxes are potentially visible, the associated procedural geometry is regenerated and rendered.

Abstract: Object previews for projection painting operations using arbitrary paint surfaces are provided. The object preview is rendered from the view of the arbitrary projection paint surface. The object preview is provided to the user, who then may define projection paint attribute values by painting over the object preview. The projection paint attribute values are mapped back on to the projection paint surface and one or more images of the object geometry are rendered using the projection paint attribute values. Object previews are rendered by defining a camera view and a proxy surface. A mapping from the proxy surface to a projection surface is defined and associates proxy surface points with projection paint surface points. Rays generated using a projection operation are defined and a renderer uses these rays to determine attribute values for their associated points on the proxy surface to define an object preview image.