Abstract: A mobile communication device includes a frame; a three-dimensional cover glass that includes a perimeter portion and an interior portion, the perimeter portion including a bended portion that extends under at least a portion of the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing.

Abstract: A computing device includes memory configured for storing executable instructions, a processor configured for executing the instructions, a spine member, where the spine member includes the memory and the processor, and a plurality of display pages, each display page coupled at a first edge of the page to the spine member and having a second edge, opposite the first edge that is free to rotate about an axis defined by the spine member, wherein at least one page includes two separately controllable OLED displays on opposite sides of the page.

Abstract: A computing device includes memory configured for storing executable instructions, a processor configured for executing the instructions, a spine member, where the spine member includes the memory and the processor, and a plurality of display pages, each display page coupled at a first edge of the page to the spine member and having a second edge, opposite the first edge that is free to rotate about an axis defined by the spine member, wherein at least one page includes two separately controllable OLED displays on opposite sides of the page.

Abstract: A mobile communication device includes a frame; a three-dimensional cover glass that includes a perimeter portion and an interior portion, the perimeter portion including a bended portion that extends under at least a portion of the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage medium, for calibrating a display to minimize the effect of image retention are disclosed. In one aspect, a method is disclosed that includes obtaining data representing a current state of pixels in a first region of a display of the user device, determining a current pixel calibration associated with the first region of the display of the user device, determining a difference between the current pixel calibration and an initial pixel calibration for the pixels in the first region of the display of the user device, and adjusting a calibration of pixels in a second region of the display of the user device based on the determined difference between the current pixel calibration and an initial pixel calibration for the pixels in the first region of the display of the user device.

Abstract: A head mounted display (HMD) device includes a left-eye display panel and a right-eye display panel. Each of the left-eye and right-eye display panels includes a proximate edge, a distal edge, an active display area having a proximate border and a distal border. A distance between the proximate border and the proximate edge is less than a distance between the distal border and the distal edge. For each display panel, a first border region defined by the distal edge and the distal border contains circuitry for operating pixels of the active display area, whereas a second border region defined by the proximate edge and the proximate border is devoid of circuitry.

Abstract: In a general aspect, a display device may include a flexible display having a substantially flat central portion and an end portion, a printed circuit film disposed on the end portion of the display, a panel member attached to the printed circuit film, the panel member being bent around a bend axis to form an edge of the display, and a support structure disposed inside of formed edge of the panel member, the support structure being non-parallel to the flat central portion of the display. The panel member may conform to a shape of the support structure.

Abstract: An apparatus includes one or more light sources configured to provide light having at least three different colors and a backlight layer configured for diffusing the light. A MEMS-based shutter layer includes a plurality of pixel elements having shutters programmably controlled to allow light from the backlight layer to pass through the shutter layer when the MEMS-based shutter is in an open configuration and to block light from passing through the shutter layer when in a closed configuration. A processor is configured to control the provision of the different colored light from the one or more light sources to the backlight layer and configured to control the passage of light from the backlight layer through the plurality of pixel elements to provide a predetermined image on the display apparatus. A hard, scratch resistant cover glass layer is stacked above the MEMS-based shutter layer.

Abstract: A computer-implemented method for automatically controlling a dynamic backlight control (DBC) of a display is disclosed according to one aspect of the subject technology. The method comprises determining whether an image to be displayed on the display comprises a high-resolution still image, and, if the image comprises a high-resolution still image, then disabling the DBC.

Abstract: A liquid crystal display screen of an electronic device is formed on a glass substrate. The glass substrate has an active display area with liquid crystal display elements disposed thereon. The active display area is bordered by an edge area of the glass substrate. Antenna elements are disposed in the edge area of the substrate. The antenna elements are coupled to wireless communications circuitry in the electronic device.

Abstract: A touchscreen display device may include a capacitive sensor disposed adjacent to a top surface of the display device, and a resistive sensor disposed below the capacitive sensor. A backlight may selectively illuminate a pattern on an inner side of the top surface of the display device, so that the pattern is visible from outside the display device when the backlight is activated, and is not visible when the back light is not activated.

Abstract: A computing device includes a backlight display having a plurality of light sources, each light source being associated with at least one, but not all, of a plurality of different individual regions of the backlight display. The computing device includes a display controller configured to turn on at least one of the plurality of light sources, while other ones of the light sources are not turned on, to provide backlight illumination to an individual region of the backlight display associated with the light source(s) that are turned on, while not providing backlight illumination to one or more other individual regions of the backlight display. The computing device includes an event handler configured to detect an occurrence of an event that may be handled by a program installed on the computing device.

Abstract: A touchscreen display device may include a capacitive sensor disposed adjacent to a top surface of the display device, and a resistive sensor disposed below the capacitive sensor. A backlight may selectively illuminate a pattern on an inner side of the top surface of the display device, so that the pattern is visible from outside the display device when the backlight is activated, and is not visible when the back light is not activated.

Abstract: A computer-implemented method for automatically controlling a dynamic backlight control (DBC) of a display is disclosed according to one aspect of the subject technology. The method comprises determining whether an image to be displayed on the display comprises a high-resolution still image, and, if the image comprises a high-resolution still image, then disabling the DBC.

Abstract: A liquid crystal display screen of an electronic device is formed on a glass substrate. The glass substrate has an active display area with liquid crystal display elements disposed thereon. The active display area is bordered by an edge area of the glass substrate. Antenna elements are disposed in the edge area of the substrate. The antenna elements are coupled to wireless communications circuitry in the electronic device.

Abstract: A light source can include an LED configured to emit light having a spectrum of first wavelengths when provided with electrical current, a pumped material configured to absorb at least some of the light emitted by the LED and to emit light having a spectrum of second wavelengths, a power supply configured to provide a series of electrical current pulses to the LED, and a current controller configured to control a time-averaged chromaticity coordinate of a combination of light emitted from the LED and the pumped material by controlling the series of current pulses provided to the LED.

Abstract: A backlight for providing light to a computer-controlled display device, includes a plurality of first light sources, a plurality of second light sources, and a light guide panel (LGP). The LGP has at least one edge and a surface facing a display surface of the display device and is adapted for guiding light emitted by, and received from, the first and second light sources at one or more edges of the LGP to the surface of the LGP. The first light sources include first light emitting diodes (LEDs) having a peak emission wavelength of greater than 500 nm. The second light sources include second LEDs having a peak emission wavelength of less than 480 nm and phosphor material that absorbs a portion of light emitted from the second LEDs and converts the absorbed light into light emitted from the phosphor material having a peak emission wavelength greater than 500 nm.

Abstract: The preferred embodiments of the present invention provide a system and method for reducing the battery power required by a handheld device (300) that incorporates a graphical display (301). Graphical display (301), display drivers (307), LCD controller (403) and a memory (405) are optimized such that several pixels of information may be clocked simultaneously when the device is operating in a partial display mode. The optimized circuitry reduces the required refresh clock frequency (411) and thus the current drain on a device battery (319) thereby improving device operation time.

Abstract: An embodiment generally relates to a method of communicating with a plurality of registers in a display driver integrated circuit (IC). The method includes providing a data message and driving the data message over color select lines of the display driver IC in response to the display driver IC being in an overscan condition.

Abstract: Disclosed are devices and methods for intradevice communication in a mobile communication device having a display. A method includes providing a supply signal and superimposing a data signal onto the supply signal. The method further includes driving a light source with the supply signal and the superimposed data signal to produce light to illuminate the display. Also included is sensing the light illuminating the display with an optical sensor, which is coupled to a receiver circuit, and then distinguishing the data signal from the sensed light with the receiver circuit. An image is formed on the display using the data signal distinguished with the receiver circuit.