An information processing apparatus including an acquisition unit configured to acquire first information regarding relative movement between a viewpoint and display information, and second information regarding a light emission period for presentation of the display information to a display region, and a control unit configured to cause the display information to be presented in the display region on the basis of the first information and the second information, in which the control unit corrects a presentation position of the display information in the display region according to the relative movement between the viewpoint and the display information in the light emission period.

The present disclosure provides a processing method. The method includes outputting first content in a first display area of a first display device, the first content including an identification object, the edge of the first area being an edge area between the first display area and a second display area of a second display device; receiving a movement instruction for moving the identification object from the first display area to the second display area; and moving the identification object from a first position in the first display area to a second position in the second display area in response to the movement instruction, the first position being a position on the edge of the first area.

An embodiment of the present invention provides a picture processing method in an embedded system. The picture processing method includes: performing a bit setting operation on an input/output register corresponding to a communication GPIO port of a camera module in the embedded system, so as to improve a picture collection speed of the camera module; compressing a collected picture using a preset picture compression algorithm and transmitting the compressed picture to a picture preprocessing unit in the embedded system; and filtering out, by the picture preprocessing unit, a picture background using a preset filtering algorithm to obtain picture features of a target object in the picture. With the picture processing method, requirements for an occupied memory resource are balanced while a picture collection speed and a picture data processing speed are increased.

An embodiment of the present invention provides a picture processing method in an embedded system. The picture processing method includes: performing a bit setting operation on an input/output register corresponding to a communication GPIO port of a camera module in the embedded system, so as to improve a picture collection speed of the camera module; compressing a collected picture using a preset picture compression algorithm and transmitting the compressed picture to a picture preprocessing unit in the embedded system; and filtering out, by the picture preprocessing unit, a picture background using a preset filtering algorithm to obtain picture features of a target object in the picture. With the picture processing method, requirements for an occupied memory resource are balanced while a picture collection speed and a picture data processing speed are increased.

A dynamic digital advertising content system having a front end system and a back end system, and used to present product content to a user's computing device in the form of a digital circular. The back end system provides retailers and third party access to upload, and update, product content information for the digital circular, including videos and animations. The dynamic digital advertising content system can include integrations for third-parties such as digital coupon providers and loyalty program providers. The system permits users the ability to share with other users merchandise displayed in the digital circular and/or selected for a shopping list. Such shared content can be dynamically arranged for subsequent presentation on a computing device of the recipient. The digital circular is further customizable for individual retailers or retailer locations, as well as customizable based on detected histories and/or characteristics of the user receiving the digital circular.

A system may render glyphs based on stored textures without loss of quality at subpixel scales. The system may determine a content of a pixel of a display corresponds to a glyph, determine a subpixel alignment offset of a specified screen coordinates for the glyph with respect to the pixels of the display, based on the subpixel alignment offset, select one or more versions of the glyph from a plurality of versions of the glyph, a first version of the glyph of the plurality of versions of the glyph having a corresponding first subpixel alignment offset and a second version of the glyph of the plurality of versions of the glyph having a corresponding second subpixel alignment offset, and generate a display version of the pixel based on the selected one or more versions of the glyph and the subpixel alignment offset of the specified screen coordinates.

A system may render glyphs based on stored textures without loss of quality at subpixel scales. The system may determine a content of a pixel of a display corresponds to a glyph, determine a subpixel alignment offset of a specified screen coordinates for the glyph with respect to the pixels of the display, based on the subpixel alignment offset, select one or more versions of the glyph from a plurality of versions of the glyph, a first version of the glyph of the plurality of versions of the glyph having a corresponding first subpixel alignment offset and a second version of the glyph of the plurality of versions of the glyph having a corresponding second subpixel alignment offset, and generate a display version of the pixel based on the selected one or more versions of the glyph and the subpixel alignment offset of the specified screen coordinates.

A data processing method, a user equipment and an augmented reality system are provided. The method includes: displaying at least one virtual object in a display area of a first display screen; and triggering the at least one virtual object to move towards a second user equipment, such that when the at least one virtual object moves into an observation region corresponding to the second user equipment, the second user equipment displays the at least one virtual object in a display area of a second display screen. A user wearing a first user equipment including the first display screen can send the at least virtual object to a field of view of a user wearing the second user equipment, such that the at least virtual object can be seen by the user wearing the second user equipment. Therefore, interaction between the users wearing the respective user equipment can be improved.

A display control device includes: a circle setting unit that sets a reference circle that serves as the reference for a scale mark layout; a scale mark position determining unit that determines the position of a scale mark on the reference circle; a rectangle setting unit that sets a number display rectangle of the size corresponding to the number of digits of the indication number indicating the value corresponding to the scale mark; a rectangle position determining unit that determines the layout position of the number display rectangle from the position of the scale mark, using a calculating formula that has been set on the basis of the size of the reference circle and the size of the number display rectangle; and a number display unit that displays a number in the number display rectangle, and the calculating formula is designed so that, in a case where a straight line extending through the center of the reference circle on a display screen is set as a symmetrical axis, number display rectangles for displaying indication numbers indicating the values corresponding to scale marks disposed at positions symmetrical to each other are located at the same position as viewed from the direction of the symmetrical axis, and each number display rectangle is located at a layout position inscribed in the reference circle.

Methods and systems are provided for propagating a free-form user input across different displays. One method involves receiving a free-form user input on a navigational map display, assigning a geographic location to the free-form user input based on a position of the free-form user input on the navigational map display, and generating a graphical indication influenced by the free-form user input on a second display at a respective position on the second display corresponding to the geographic location assigned to the free-form user input.