An image display device includes a plurality of signal input parts, a plurality of sub-controllers configured to process video signals from a plurality of signal input parts, and a controller configured to generate a display screen to be displayed on a display. The controller obtains the timing information for a video signal from the sub-controller based on the display information installed in advance.

Described herein are systems and methods for dynamically adjusting an aspect ratio of a video. Exemplary methods can include receiving (i) a video having an original aspect ratio and at least one user interface (UI) element configured to be selected by a user of the video and (ii) an aspect ratio of a display screen for presenting the video. The methods can include automatically determining a display area of the video to be presented based on (i) the default position of the at least one UI element in the video, (ii) an active area in the video, and/or (iii) a central area in the video, the display area having an aspect ratio equal to the aspect ratio of the display screen; and presenting the video display area in the display screen with the at least one UI element for at least the portion of the video.

Techniques are disclosed for converting image frames, such as the image frames of a motion picture, from one aspect ratio to another while predicting the pan and scan framing decisions that a human operator would make. In one configuration, one or more functions for predicting pan and scan framing decisions are determined, at least in part, via machine learning using training data that includes historical pan and scan conversions. The training data may be prepared by extracting features indicating visual and/or audio elements associated with particular shots, among other things. Function(s) may be determined, using machine learning, that take such extracted features as input and output predicted pan and scan framing decisions. Thereafter, the image frames of a received video may be converted between aspect ratios on a shot-by-shot basis, by extracting the same features and using the function(s) to make pan and scan framing predictions.

Embodiments of the present invention are directed towards reframing videos from one aspect ratio to another aspect ratio while maintaining visibility of regions of interest. A set of regions of interest are determined in frames in a video with a first aspect ratio. The set of regions of interest can be used to estimate an initial camera path. An optimal camera path is determined by leveraging the identified regions of interest using the initial camera path. Sub crops with a second aspect ratio different from the first aspect ratio of the video are identified. The sub crops are placed as designated using the optimal camera path to generate a cropped video with the second aspect ratio.

A method causes a display device to simultaneously display at least the following: a video depicting an item in a scene and a tag in a first position on the video. The tag is associated with the item depicted in the video. The tag includes text information associated with the item depicted in the video. The method also causes the tag to undergo motion relative to at least a portion of the video scene from the first position to a second position different from the first position, while causing the display device to display the video and the tag on the video.

A camera system captures an image in a source aspect ratio and applies a transformation to the input image to scale and warp the input image to generate an output image having a target aspect ratio different than the source aspect ratio. The output image has the same field of view as the input image, maintains image resolution, and limits distortion to levels that do not substantially affect the viewing experience. In one embodiment, the output image is non-linearly warped relative to the input image such that a distortion in the output image relative to the input image is greater in a corner region of the output image than a center region of the output image.

A device displays a camera user interface for recording media images in a plurality of media recording modes. While displaying the camera user interface, the device captures media with one or more cameras. In response to capturing the media, in accordance with a determination that the captured media is consistent with a first media recording mode, the device displays a first prompt in the camera user interface that prompts a user to take one or more actions associated with the first media recording mode; and in accordance with a determination that the captured media is consistent with a second media recording mode, the device displays a second prompt in the camera user interface that prompts the user to take one or more actions associated with the second media recording mode, where the first media recording mode is different from the second media recording mode.

A display device includes a display panel which includes pixels arranged in a matrix form and a controller which receives a first image signal corresponding to a first active period of a first frame, outputs a first final output signal corresponding to a first conversion active period of the first frame, and drives the display panel based on the first final image signal. The controller includes a timing changing unit which receives the first image signal and changes a first image signal pixel size corresponding to the first image signal to a panel pixel size corresponding to the display panel to generate the first output signal, and a frequency changing unit which receives the first output signal from the timing changing unit and reduces a frame frequency of the first output signal based on the first image signal to output the first final output signal.

Provided are an artificial intelligence (AI) system that mimics cognitive functions, such as cognition and judgment, of the human brain using a machine learning algorithm such as deep learning and applications thereof. More particularly, provided is a device including a memory storing least one program and a first video, a display, and at least one processor configured to display the first video on at least one portion of the display by executing the at least one program, wherein the at least one program includes instructions for: comparing an aspect ratio of the first video with an aspect ratio of an area in which the first video is to be displayed, generating a second video corresponding to the aspect ratio of the area by using the first video when the aspect ratio of the first video is different from the aspect ratio of the area, and displaying the second video in the area, wherein the generating of the second video is performed by inputting at least one frame of the first video to an Al neural network.

An electronic device for processing a touch input is provided. The electronic device includes a touch screen display having a first aspect ratio; a memory that stores at least one application; and a processor electrically connected to the touch screen display and the memory, wherein the processor is configured to compare a second aspect ratio of a user interface of one of the at least one application with the first aspect ratio, display the user interface in a first area having the second aspect ratio of the touch screen display when the second aspect ratio is smaller than the first aspect ratio, display at least one function button, which is not a part of the application, in a second area of the touch screen display that does not overlap the first area, display the user interface in an entire area of the touch screen display when the second aspect ratio is equal to the first aspect ratio, and display the at least one function button on the touch screen display such that the function button overlaps the user interface.