Abstract: An electronic device includes a touch panel, a housing, a moving element and an elastic plate. The moving element is connected to the touch panel. The elastic plate includes a first portion connected to the touch panel, a second portion connected to the moving element, and a third portion connected to the housing.

Abstract: An electronic device includes a haptic touch panel including a touch surface, a housing, a counter mass, an actuator and an elastic plate. The actuator is connected to the haptic touch panel. The elastic plate includes a first portion connected to the haptic touch panel, a second portion connected to the counter mass, and a third portion connected to the housing.

Abstract: An electronic device includes a touch panel, a housing, a moving element and an elastic plate. The moving element is connected to the touch panel. The elastic plate includes a first portion connected to the touch panel, a second portion connected to the moving element, and a third portion connected to the housing.

Abstract: An electronic device includes a haptic touch panel including a touch surface, a housing, a counter mass, an actuator and an elastic plate. The actuator is connected to the haptic touch panel. The elastic plate includes a first portion connected to the haptic touch panel, a second portion connected to the counter mass, and a third portion connected to the housing.

Abstract: Disclosed is a display apparatus, including a display region and a peripheral region outside of the display region. The display region includes a plurality of pixels arranged on a substrate. The peripheral region includes a plurality of first circuit areas and second circuit areas on the substrate. The first circuit areas drive the pixels in a first direction, and the second circuit areas drive the pixels in a second direction. At least one of the first circuit area and the second circuit area has the shape of a pentagon with sequentially connected sides including a first side, a second side, a third side, a fourth side, and a fifth side.

Abstract: A display panel is provided. The display panel has an active area and a border area out of the active area. The display panel includes a plurality of pixels, a first gate driver portion, a plurality of scan lines and a multiplexer portion. The pixels are located in the active area. The first gate driver portion is located in the border area. The scan lines are located in the active area, and connected to the first gate driver portion. The multiplexer portion is located in the border area. The multiplexer portion and the first gate driver portion at least partially overlap along a direction parallel to one of the plurality of scan lines.

Abstract: A display panel is provided. The display panel has an active area and a border area out of the active area. The display panel includes a plurality of pixels, a first gate driver portion, a plurality of scan lines and a multiplexer portion. The pixels are located in the active area. The first gate driver portion is located in the border area. The scan lines are located in the active area, and connected to the first gate driver portion. The multiplexer portion is located in the border area. The multiplexer portion and the first gate driver portion at least partially overlap along a direction parallel to one of the plurality of scan lines.

Abstract: A display panel is provided. The display panel includes has an active area and a border area surrounding the active area. The display panel includes a plurality of pixels, a plurality of multiplexer portion, a gate driver portion and a source routing portion. The pixels are located in the active area. The multiplexer portion is located in the border area. The gate driver portion is located in the border area. The source routing portion is located in the border area. In part of the border area, at least part of the multiplexer portion, at least part of the gate driver portion and at least part of the source routing portion are located and sequentially arranged from an internal edge of the border area to an external edge of the border area.

Abstract: Disclosed is a display apparatus, including a display region and a peripheral region outside of the display region. The display region includes a plurality of pixels arranged on a substrate. The peripheral region includes a plurality of first circuit areas and second circuit areas on the substrate. The first circuit areas drive the pixels in a first direction, and the second circuit areas drive the pixels in a second direction. At least one of the first circuit area and the second circuit area has the shape of a pentagon with sequentially connected sides including a first side, a second side, a third side, a fourth side, and a fifth side.

Abstract: A touch sensing display and a sensing method thereof are provided. The touch sensing display includes a touch sensor layer and an active shield layer. The active shield layer includes a plurality of gate lines and a common electrode. The sensing method comprises the following steps. A touch sensing signal is applied to the touch sensor layer during a touch mode period. A gate signal of the gate lines is controlled to be synchronous to the touch sensing signal during the touch mode period. A common signal of the common electrode is controlled to be synchronous to the touch sensing signal during the touch mode period.

Abstract: A display panel is provided. The display panel includes has an active area and a border area surrounding the active area. The display panel includes a plurality of pixels, a plurality of multiplexer portion, a gate driver portion and a source routing portion. The pixels are located in the activate area. The multiplexer portion is located in the border area. The gate driver portion is located in the border area. The source routing portion is located in the border area. In part of the border area, at least part of the multiplexer portion, at least part of the gate driver portion and at least part of the source routing portion are located and sequentially arranged from an internal edge of the border area to an external edge of the border area.

Abstract: A driving apparatus comprises a plurality of pixels provided in an array employing the 2-column inversion scheme, a 1:2 multiplexer and a data driving unit. Each pixel comprises a plurality of sub-pixels corresponding to different colors respectively. The 1:2 multiplexer coupled to the two pixels multiplexes a data source over one of the sub-pixels in the m column and the other of the sub-pixels in the m+1 column of the same row corresponding to the same color and the same polarity, wherein m is positive integers. The data driving unit is coupled to the 1:2 multiplexer through a plurality of data lines and provides the data source to the 1:2 multiplexer. The data lines do not have to switch between sub-pixels, nor polarity, which is beneficial for power consumption, and for front-of screen performance, which may be influenced by artefacts caused by the switching of the multiplexer.

Abstract: A multi-primary conversion method is disclosed for converting an input vector defining a color of an input pixel in a Linear color space into a drive vector having n components for driving “n” display primaries of a display color space. The drive vector comprises m sub-drive vectors for driving m groups of the display primaries.

Abstract: The present invention relates to a processing device and a method of providing privacy for a display device comprising a display panel arranged to display a first image signal (405), the display panel having an off-axis tonal reproduction curve that is different from the on-axis tonal reproduction curve of the display panel, and the display panel comprising a group of adjacent subpixels, wherein subpixels of the group of adjacent subpixels contribute at least a common primary color component, and wherein the group of adjacent subpixels associated with at least one pixel; the method comprising modulating control signals of individual subpixels of the group of adjacent subpixels, using a second image signal (425), the control signals arranged to generate tonal values for at least two of the individual subpixels of the group of adjacent subpixels that are at least in part decorrelated from the first image signal when viewed off-axis, and to generate tonal values for the group of adjacent subpixels that on averag

Abstract: To have an optimal use of a display for displaying particular, e.g.

Abstract: An apparatus for enhancing at least a region of an input picture having input pixel values enabling a reduction of quantization banding artifacts including an estimation unit arranged to estimate a quantization precision of at least the region of the input picture, a pattern analysis unit arranged to determine positions in the input picture of changes in input pixel value of less than or equal to the quantization precision, and to output analysis information representing the positions, and an adaptive filter, arranged to calculate an output picture corresponding to at least the region of the input picture, comprising output pixels being determined on the basis of adaptive combinations of input pixels, and arranged to determine the adaptive combinations in dependence on the analysis information.

Abstract: A color display device, a drive circuit for a color display device, a method, a signal and a computer-readable medium for reducing electro-optical cross talk that occurs in a display that is operated in Spectrum Sequential mode is disclosed. The invention eliminates annoying visible artifacts, such as contouring, noise, or color deviation, which normally are introduced by this cross talk by compensating for the cross talk. According to embodiments of the invention, a drive signal (R?,G?,B?) to drive picture elements of the display is altered in video processing circuitry (MPC, XTC, SC) and/or software, in dependence on one or more properties of different spectra from a light source (23, 24) in the display. The invention is implemented with little extra effort and cost in known LCD displays.

Abstract: A method converts an input image signal (IS) into a drive signal (DS) for driving sub-pixels (SP) of a display device (DD) comprising display pixels (DPI) having at least two sub-pixel groups (SG1, SG2) being able to contribute to luminance information displayed. The conversion comprises a multi-primary conversion (MPC) which receives the input image signal (IS) and which is performed under a constraint (CO). The constraint (CO) is determined (CD) by substantially matching local display luminances (DL1, DL2; DLD) associated with the at least two sub-pixel groups (SG1, SG2) with corresponding local input luminances (L1, L2; LD) of input pixels (IP) of the input image signal (IS), thereby obtaining a display luminance pattern defined by the display pixels (DPI) corresponding to an input luminance pattern defined by the input pixels (IP) associated with the display pixels (DPI).

Abstract: A method is described which converts a three primary color input signal (Cx, Cy, Cz) into N drive signals (P1, . . . , PN) to drive N>3 primary colors of a multi-primary color display (3). The method determines (1) a valid range (VS) wherein the N drive signals (P1, . . . , PN) have valid values by performing the steps of (i) defining 3 functions representing 3 of the drive signals (P1, P2, P3) as a function of the remaining N?3 drive signal(s) (P4, . . . , PN), and (ii) calculating (1) a common range in a space formed by the N?3 drive signal(s) (P4, . . . , PN) wherein each one of the 3 functions has valid values. The method selects (2) a point from the common range to determine the N drive signals (P1, . . . , PN).

Abstract: The display device (DD) comprises an adjustable light source (BL), a display panel (DP) with display pixels for modulating light originating from the light source (BL) and processing circuitry (P) coupled to the display panel (DP) and the light source (BL). The processing circuitry (P) has an input for receiving an input signal (V1) representing gray levels of pixels of an image to be displayed on the display panel (DP). The processor (P) comprises: selecting circuitry (S) for selecting a dimmed brightness level of the light source (BL) in dependence on the gray levels of the image pixels, and adaptation circuitry (A) for adapting the input signal (V1) in dependence on the dimmed brightness level.