Abstract: Technical solutions present systems and methods for generating a composite video of a trip and inserting augmented content using AI modeling and vehicle data. A solution can identify a plurality of videos taken from a vehicle between a first time and a second time. The solution can identify, for the plurality of videos, a plurality of video fragments, each one of which corresponding to data of the vehicle at a time interval of a plurality of time intervals between the first time and the second time. The solution can determine, based on the plurality of video fragments input into a model, a type of scene for each video fragment and select, a set of video fragments based on the respective data and the respective type of scene of a plurality of sets of video fragments to generate a composite video using the set of video fragments.

Abstract: Aspects of the subject disclosure relate to a vehicle camera system. A device implementing the subject technology includes a first set of cameras and a processor configured to receive first data from at least one camera of a second set of cameras of an object configured to be towed by a vehicle and second data from at least one camera of the first set of cameras. The processor may determine, using a trained machine learning algorithm, a set of sub-pixel shift values that represent relative positions of images in the first data and the second data based on a position of the at least one camera of the first set of cameras. The processor may align, using the trained machine learning algorithm, the images based on the set of sub-pixel shift values, and combine the aligned images to produce a stitched image having a combined field of view.

Abstract: Aspects of the subject disclosure relate to a vehicle camera system. A device implementing the subject technology may include a processor configured to detect a first camera on a vehicle and a second camera on the vehicle. The processor can determine a position and a pose of at least one of the first camera or the second camera. The processor also can receive first data from the first camera and second data from the second camera. The processor can stitch the first data with the second data to generate a stitched image having a contiguous field of view based on the position and the pose of the at least one of the first camera or the second camera. Accordingly, seamless integration of cameras between a vehicle and towed objects of various geometries for surround view can be provided.

Abstract: Systems and methods of controlling an air compressor are provided. A system of a vehicle can establish a bi-directional connection with a controller of an air compressor of the vehicle. The system can present, via a graphical user interface displayed on a display device, an icon for a preset configured with a target pressure for a type of object. The system can transmit, via the bi-directional connection responsive to a selection of the preset, an instruction to the controller to activate the air compressor to inflate the object to the target pressure.

Abstract: A user interface of an image capture device may provide options for a user to schedule future capture of visual content by the image capture device. The user may interact with the options to specify the start time and the capture duration for the future capture of visual content. Information on scheduled future capture of visual content may be presented on one or more displays.

Abstract: A user interface of an image capture device may provide options for a user to schedule future capture of visual content by the image capture device. The user may interact with the options to specify the start time and the capture duration for the future capture of visual content. Information on scheduled future capture of visual content may be presented on one or more displays.

Abstract: A user interface of an image capture device may provide options for a user to schedule future capture of visual content by the image capture device. The user may interact with the options to specify the start time and the capture duration for the future capture of visual content.

Abstract: An image capture device may buffer video footage in a memory buffer before a command to record video is received. The image capture device may present a progression of color along a path to reflect the amount of buffered video footage. When the command to record the video is received, the video may be generated to include both buffered video footage and the video footage captured after the command.

Abstract: A user interface of an image capture device may provide options for a user to schedule future capture of visual content by the image capture device. The user may interact with the options to specify the start time and the capture duration for the future capture of visual content.

Abstract: An image capture device may buffer video footage in a memory buffer before a command to record video is received. The image capture device may present a progression of color along a path to reflect the amount of buffered video footage. When the command to record the video is received, the video may be generated to include both buffered video footage and the video footage captured after the command.

Abstract: A user interface of an image capture device may provide options for a user to schedule future capture of visual content by the image capture device. The user may interact with the options to specify the start time and the capture duration for the future capture of visual content.

Abstract: An image capture device may buffer video footage in a memory buffer before a command to record video is received. The image capture device may present a progression of color along a path to reflect the amount of buffered video footage. When the command to record the video is received, the video may be generated to include both buffered video footage and the video footage captured after the command.