Abstract:
A multi-panel display system includes an array of display panels arranged to be viewed as a multi-panel display. The multi-panel display includes a bezel pixel layer covering a bezel region of the multi-panel display. The bezel region is between pixel regions of the display panels in the array. The multi-panel display system also includes a display engine communicatively coupled to drive the display panels to display image sections and communicatively coupled to drive the bezel pixel layer to display a bezel shaped image section. The image sections and the bezel shaped image sections are subsections of a unified overall-image to be displayed on the multi-panel display.
Abstract:
A system for displaying a unified image on a multi-panel display includes a projector and a display engine. The projector is configured to project a patterned projection on a bezel region between an array of display panels arranged to be viewed as a multi-panel display. The display engine is coupled to drive the multi-panel display to display image sections. The patterned projection and the image sections combine to form a unified image.
Abstract:
A tileable display panel includes an illumination layer, a display layer, and a screen layer. The display layer is disposed between the screen layer and the lamp layer and includes pixelets separated from each other by spacing regions. Each of the pixelets is positioned to be illuminated by lamp light from the illumination layer and to project a magnified image sub-portion onto the backside of the screen layer such that the magnified image sub-portions collectively blend together to form a unified image on the screen layer which covers the spacing regions on the display layer. Each of the pixelets includes core pixels having a common size and a first separation pitch and peripheral pixels surrounding the core pixels on two or more sides which provide a higher image resolution in overlap regions on the screen layer when the magnified image sub-portions overlap on the screen layer.
Abstract:
Techniques and mechanisms for providing an enhanced display of video content. In an embodiment, analysis of one or more frames of audio-video (AV) information is performed to identify first video data as representing smooth image content, where second video data represents edge image content. Based on the identifying of the first video data, enhancement processing is performed to selectively apply a noise component to the first video data. Of the first video data and the second video data, the enhancement processing modifies only the first video data. In another embodiment, a refresh rate for displaying a sub-portion of a magnified image is selectively set based on the first video data being identified as representing smooth image content. Enhancement with selective noise and/or refresh rate variation improves perceived resolution of smooth image content, as seen by a viewer of the resulting image.
Abstract:
A display apparatus includes a display layer for generating images to be viewable from a viewing region and an aesthetic layer disposed over the display layer. Activation circuitry is coupled to activate the aesthetic layer in response to an input. When the aesthetic layer is activated, it emits or reflects aesthetic light.
Abstract:
A tileable display panel includes an array of display pixels including central display pixels near a center of the array having a center pixel pitch and perimeter display pixels along a perimeter of the array. A perimeter region surrounds the array. The perimeter region includes a first side that is joinable to a second side of another instance of the tileable display panel to form a multi-panel display. The perimeter region has a width that is greater than at least half the center pixel pitch such that a gap between adjacent perimeter display pixels of the tileable display panel and the other instance of the tileable display panel when forming the multi-panel display is greater than the center pixel pitch. The gap is visually masked by increasing a characteristic of the perimeter display pixels adjacent to the gap relative to the same characteristic of the central display pixels.
Abstract:
A tileable display panel includes a screen layer, a display layer, and an illumination layer. The display layer includes a plurality of transmissive pixels to collectively project a unified image onto the backside of the screen layer. The transmissive pixels disposed within a perimeter region of the display layer have smaller transmission apertures than the transmissive pixels disposed within a central region of the display layer. The illumination layer generates lamp light to illuminate a backside of the display layer. The illumination layer is coupled to generate the lamp light incident on the backside of the display layer in the perimeter region with greater divergence than the lamp light incident on the backside of the display layer in the central region.
Abstract:
A tileable display panel includes a screen layer, a display layer, and an illumination layer. The display layer includes a plurality of transmissive pixels to collectively project a unified image onto the backside of the screen layer. The transmissive pixels disposed within a perimeter region of the display layer have smaller transmission apertures than the transmissive pixels disposed within a central region of the display layer. The illumination layer generates lamp light to illuminate a backside of the display layer. The illumination layer is coupled to generate the lamp light incident on the backside of the display layer in the perimeter region with greater divergence than the lamp light incident on the backside of the display layer in the central region.
Abstract:
A display apparatus including a screen layer for displaying a unified image to a viewer and an illumination layer having an array of light sources. Each light source emits a light beam. An array of optical elements, each coupled to a corresponding light source in the array of light sources, is disposed between the screen layer and the illumination layer. The display layer includes a matrix of pixlets and a spacing region disposed between the pixlets in the matrix, wherein the array of light sources emit their light beams through the array of optical elements, wherein each optical element is configured to shape the received light beam into a divergent projection beam having a limited angular spread to project sub-images displayed by the pixlets as magnified sub-images on the backside of the screen layer, the magnified sub-images to combine to form the unified image that is substantially seamless.
Abstract:
A multi-domain liquid crystal pixel array includes two substrate layers and liquid crystal disposed between the two substrate layers. The multi-domain liquid crystal pixel array also includes at least one alignment layer having four or more alignment zones across the multi-domain liquid crystal pixel array. Each alignment zone has a different pre-tilt liquid crystal orientation than the other alignment zones. The alignment zones are configured to generate divergent image light with respect to a center of the multi-domain liquid crystal pixel array.