Abstract: Examples are disclosed herein that relate to displaying modification regions on a multi-display device. One example provides a multi-display device comprising a plurality of displays, the multi-display device storing line offset data defining a line offset to apply to a displayed image to correct for display misalignment, and modification region data defining one or more modification regions that each modifies an appearance of the displayed image. The multi-display device is configured to set a displayed location of a first active area based upon the line offset data for a first display, and set a displayed location of a first modification region for the first display based upon the line offset data for the first display.

Abstract: Examples are disclosed herein that relate to displaying modification regions on a multi-display device. One example provides a multi-display device comprising a plurality of displays, the multi-display device storing line offset data defining a line offset to apply to a displayed image to correct for display misalignment, and modification region data defining one or more modification regions that each modifies an appearance of the displayed image. The multi-display device is configured to set a displayed location of a first active area based upon the line offset data for a first display, and set a displayed location of a first modification region for the first display based upon the line offset data for the first display.

Abstract: A display with a curved portion is provided. The display includes a capacitive sensor mesh layer including a plurality of cells, wherein at least a cell of the plurality of cells includes at least one cell face that has a discontinuity in the cell face based at least in part on a position of the cell on the curved portion.

Abstract: A display with a curved portion is provided. The display includes a capacitive sensor mesh layer including a plurality of cells, wherein at least a cell of the plurality of cells includes at least one cell face that has a discontinuity in the cell face based at least in part on a position of the cell on the curved portion.

Abstract: Examples are disclosed relating to foldable display devices and methods for folding a display device through a range of degrees at a folding portion. In one example, a display device comprises a rear cover and a cover glass layer extending from a left side of the display device through the folding portion to a right side. A light-emitting layer is between the rear cover and the cover glass layer. A backplate is between the rear cover and the light-emitting layer, with the backplate comprising backplate slots that extend from an upper surface through a lower surface to facilitate bending of the backplate.

Abstract: A method that enables an adaptive low power display device is described herein. The method includes determining a blocked area of a panel display, wherein the panel display is to render one or more images and deriving a segmented area of the display based on the blocked area of the display. The method also includes adjusting a segment of a backlight of the panel display that is proximate to the blocked area of the panel display according to a sparse array configuration, wherein the backlight is non-uniform in emitting light.

Abstract: Sub-pixel compensation is described. In at least some implementations, a computing device includes a plurality of sub-pixels within a pixel which may generate an alternating display to approximate the display of a single sub-pixel. In other implementations, a voltage is applied to sub-pixels of a color such that a voltage across a first sub-pixel is proportional to a voltage across one or more additional sub-pixels. In other implementations, a change in a voltage drop across a sub-pixel is detected, and the change is compensated for by altering a voltage of a second sub-pixel within the pixel.

Abstract: A display device comprises a chassis and a cover glass substrate. A display unit is positioned between the cover glass substrate and the chassis. The display unit comprises a backlight housing comprising a shelf between the cover glass substrate and a base. A light guide plate is positioned within the backlight housing. A display glass substrate is positioned between the light guide plate and the cover glass substrate, with the display glass substrate bonded to the shelf.

Abstract: A graphical display device includes a plurality of color-specific subpixels spatially distributed across a display region. Subpixel wear compensation is performed for some or all of the color-specific subpixels. For each color-specific subpixel, the compensation may include sampling one or more display signals directed to the color-specific subpixel to obtain a time-series of sampled values. The compensation may further include storing, in non-volatile storage, compensation data for the color-specific subpixel derived from the time-series of sampled values. The compensation may further include driving the color-specific subpixel based on the compensation data.

Abstract: A display device comprises a first chassis and a first backlight housing attached to the first chassis and comprising a first wall. A first optical film layer between a first light guide plate and a first rear polarizer comprises a secured end bonded to the first wall. A second chassis is rotatably coupled to the first chassis and includes a second backlight housing attached to the second chassis and comprising a second wall. A second optical film layer between a second light guide plate and a second rear polarizer includes a secured end bonded to the second wall.

Abstract: A device is disclosed that includes a display panel, a cover glass, and a printed circuit board. The display panel emits light and the cover glass passes the light from the display panel. The display panel includes traces to carry control signals, the cover glass includes traces to carry control signals, and a printed circuit board has traces to carry control signals. The display panel may be connected to the cover glass such that the traces on the display panel are connected to the traces on the cover glass. The printed circuit board may be connected to the cover glass such that the traces on the PCB are connected to the traces on the cover glass.

Abstract: A graphical display device includes a plurality of color-specific subpixels spatially distributed across a display region. Subpixel wear compensation is performed for some or all of the color-specific subpixels. For each color-specific subpixel, the compensation may include sampling one or more display signals directed to the color-specific subpixel to obtain a time-series of sampled values. The compensation may further include storing, in non-volatile storage, compensation data for the color-specific subpixel derived from the time-series of sampled values. The compensation may further include driving the color-specific subpixel based on the compensation data.

Abstract: A device is disclosed that includes a display panel, a cover glass, and a printed circuit board. The display panel emits light and the cover glass passes the light from the display panel. The display panel includes traces to carry control signals, the cover glass includes traces to carry control signals, and a printed circuit board has traces to carry control signals. The display panel may be connected to the cover glass such that the traces on the display panel are connected to the traces on the cover glass. The printed circuit board may be connected to the cover glass such that the traces on the PCB are connected to the traces on the cover glass.

Abstract: The description relates to maintaining display device image quality. One example can include a display that includes a set of multiple pixels. Individual pixels comprise multiple color light emitting diodes (LEDs). The example can also include a processor configured to convert image related data into frame renderings for driving the multiple pixels of the display. The example can further include a context-aware anti-degradation component configured to receive a notification from the processor of a change to an individual frame rendering and to adjust lumination intensity values of unchanged portions of the individual frame rendering without comparing the individual frame rendering to a previous individual frame rendering.

Abstract: A display device comprises a chassis and a cover glass substrate. A display unit is positioned between the cover glass substrate and the chassis. The display unit comprises a backlight housing comprising a shelf between the cover glass substrate and a base. A light guide plate is positioned within the backlight housing. A display glass substrate is positioned between the light guide plate and the cover glass substrate, with the display glass substrate bonded to the shelf.

Abstract: A display device comprises a first chassis and a first backlight housing attached to the first chassis and comprising a first wall. A first optical film layer between a first light guide plate and a first rear polarizer comprises a secured end bonded to the first wall. A second chassis is rotatably coupled to the first chassis and includes a second backlight housing attached to the second chassis and comprising a second wall. A second optical film layer between a second light guide plate and a second rear polarizer includes a secured end bonded to the second wall.

Abstract: Sub-pixel compensation is described. In at least some implementations, a computing device includes a plurality of sub-pixels within a pixel which may generate an alternating display to approximate the display of a single sub-pixel. In other implementations, a voltage is applied to sub-pixels of a color such that a voltage across a first sub-pixel is proportional to a voltage across one or more additional sub-pixels. In other implementations, a change in a voltage drop across a sub-pixel is detected, and the change is compensated for by altering a voltage of a second sub-pixel within the pixel.

Abstract: Sub-pixel compensation is described. In at least some implementations, a computing device includes a plurality of sub-pixels within a pixel which may generate an alternating display to approximate the display of a single sub-pixel. In other implementations, a voltage is applied to sub-pixels of a color such that a voltage across a first sub-pixel is proportional to a voltage across one or more additional sub-pixels. In other implementations, a change in a voltage drop across a sub-pixel is detected, and the change is compensated for by altering a voltage of a second sub-pixel within the pixel.

Abstract: Conductive trace routing techniques for display and bezel sensors are described. In one or more implementations, an apparatus includes display sensors, bezel sensors, and a plurality of conductive traces. The display sensors are configured to detect proximity of an object and are arranged in conjunction with a display area of a display device to support interaction with a user interface displayed by the display device. The bezel sensors are configured to detect proximity of an object and are disposed in a bezel that at least partially surrounds the display device and is outside the display area. The plurality of conductive traces are disposed between the display and bezel sensors and communicatively couple the display sensors and the bezel sensors to one or more computing components that are configured to process inputs received from the display sensors and the bezel sensors.

Abstract: Flexible touch sensor techniques are described. A touch sensitive device includes a printed circuit board (PCB) having a touch controller and a flexible printed circuit having a flexible substrate and touch sensors formed thereon using a plurality of flexible traces arranged to detect proximity of an object. The plurality of flexible traces are extended along the flexible substrate to directly terminate onto a connector of the printed circuit board thereby forming a communicative coupling between the touch sensors and the touch controller, which thereby permits the touch controller to determine a location of the proximity of the object in relation to the touch sensors.