Abstract:
A touch control display device includes a display panel, an image compensation element positioned on the display panel, and a touch sensing structure adjacent to the image compensation element. The touch sensing structure is configured to sense touch actions applied to the touch control display device. The display panel includes a main display portion and a periphery display portion. The image compensation element includes a compensation portion, and the compensation portion is configured to distribute the image of the periphery display portion to the outside of the periphery display portion away from the main display portion. The compensation portion includes a light incident surface, a light emitting surface, and a plurality of light guiding channels extending from the light incident surface to the light emitting surface. An area of the light emitting surface is greater than an area of the light incident surface.
Abstract:
A display panel includes a lighting device, a color conversion layer, and a reflective sheet. The lighting device at least includes a first lighting part emitting a first light of a first color having a wavelength within the first wavelength range and a second lighting part emitting a second light of the first color having a wavelength within a second wavelength range. The color conversion layer includes a number of bases corresponding to the first lighting part and the second lighting part. The reflective sheet reflects a light having a wavelength within a first wavelength range and lets a light having a wavelength out of the first wavelength range to pass through. The bases corresponding to the first lighting part are doped with a number of quantum dot particles to convert the first light to a third light of a second color.
Abstract:
A display device includes a display panel, a panel driving circuit, and a control circuit. The panel driving circuit receives image data and converts the image data into output driving voltages for the display panel. The image data include original red image data, original green image data, and original blue image data. When the display device enters an eye protection mode for protecting eyes of a user, the original blue image data is modified by the panel driving circuit to reduce the gray levels of the original blue image data.
Abstract:
An apparatus for compensating an image of a display includes a light incident surface, a light emitting surface, and a plurality of light guiding channels. An area of the light emitting surface is greater than an area of the light incident surface. The plurality of light guiding channels are independent from each other, each light guiding channel extends from the light incident surface to the light emitting surface. A cross section area of the light guiding channel increases along a direction from the first light incident surface to the first light emitting surface. Light from the light incident surface is extended to the light emitting surface by the light guiding channels. The present invention further discloses a method for manufacturing the same.
Abstract:
A display device includes a display element, an image compensation element, and a backlight module. The display element includes a main display region and a periphery display region located at one side of the main display region, each of the main display region and the periphery display region includes a plurality of pixels. The image compensation element includes a compensation portion corresponding to the periphery display region, and the image compensation element extends an image of the periphery display region to one side of the periphery display region away from the main display region. The backlight module provides first light beams to the main display region and second light beams to the periphery display region, and an intensity of the first light beams is smaller than an intensity of the second light beams.
Abstract:
A touch device includes a first conducting layer, a second conducting layer, and a resistance reduction layer. The first conducting layer is insulated to the second conducting layer to form a touch sensing structure. The resistance reduction layer is coupled to the first conducting layer. A combination of the resistance reduction layer and the first conducting layer has a resistance that is less than an intrinsic resistance of the first conducting layer.
Abstract:
A display panel includes a lighting device, a color conversion layer, and a reflective sheet. The lighting device at least includes a first lighting part emitting a first light of a first color having a wavelength within the first wavelength range and a second lighting part emitting a second light of the first color having a wavelength within a second wavelength range. The color conversion layer includes a number of bases corresponding to the first lighting part and the second lighting part. The reflective sheet reflects a light having a wavelength within a first wavelength range and lets a light having a wavelength out of the first wavelength range to pass through. The bases corresponding to the first lighting part are doped with a number of quantum dot particles to convert the first light to a third light of a second color.
Abstract:
A color conversion film includes a substrate, a number of first and second indentations defined in the substrate, and a number of quantum dot blocks received in the first and second indentations. The substrate includes a first surface and a second surface parallel to the first surface. The first indentations are defined in the first surface and extended towards an interior of the substrate. The second indentations are defined in the second surface and extended towards an interior of the substrate. The quantum dot blocks converts an incident light to a light with a specific color.
Abstract:
A display panel manufacturing method includes forming a gate electrode on a substrate and a gate insulator, a semiconductor layer, and an etch stop layer covering the gate electrode. A photoresist layer covering on the etch stop layer is pattern from two opposite side of the substrate by two photolithography processes to form a photoresist pattern. The etch stop layer is dry etched to form an etch stop pattern via the photoresist pattern. The photoresist pattern is formed again by two photolithography processes. The semiconductor layer is wet etched to form a semiconductor pattern via the photoresist pattern. A source electrode and a drain electrode is formed corresponding to two opposite sides of the gate electrode to orderly cover the etch pattern, the semiconductor pattern, and the gate insulator.
Abstract:
A manufacturing method of a thin film transistor includes hard-baking and etching processes for a stop layer. Two through holes are exposed and developed in a photoresistor layer, in which a distance between the two through holes is substantially equal to the channel length of the thin film transistor. Further, the etching stop layer is dry-etched to obtain the thin film transistor having an expected channel length.