Abstract:
An embossing method is provided. The embossing method includes the following steps. A three-dimensional workpiece and a soft stamp are configured in a chamber. A non-cured material layer is configured on a decoration surface of the three-dimensional workpiece. The decoration surface is not a plane. The soft stamp is configured on the non-cured material layer, and a surface of the soft stamp contacting the non-cured material layer has an embossing pattern. A high pressure gas is injected into the chamber, so as to press the soft stamp and transfer the embossing pattern to the non-cured material layer. The non-cured material layer with the transferred embossing pattern is cured to form a cured material layer. In addition, an embossing mold is also provided.
Abstract:
A liquid crystal display panel including a first substrate, a second substrate, an active device array, a solar cell structure, an isolating layer, a cholesteric liquid crystal layer, and a common electrode layer is provided. The second substrate faces opposite to the first substrate. The active device array is disposed on the first substrate and between the first substrate and the second substrate. The solar cell structure is disposed on the second substrate and between the second substrate and the active device array. The isolating layer is disposed between the solar cell structure and the active device array. The cholesteric liquid crystal layer is disposed between the isolating layer and the active device array. The common electrode layer is disposed between the cholesteric liquid crystal layer and the isolating layer. Two opposite sides of the isolating layer directly contact with the common electrode layer and the solar cell structure, respectively.
Abstract:
A surface capacitive touch panel includes a transparent substrate, a decorative layer, a metal trace pattern layer, and a passivation layer. The decorative layer and the capacitive sensing electrode layer are formed on the transparent substrate. The metal trace pattern layer is formed on the capacitive sensing electrode layer. The decorative layer is disposed at a position substantially overlapping the metal trace pattern layer.
Abstract:
An image processing method is provided. An image signal is received and correspondingly converted to an original luminance value, an original first chroma value and an original second chroma value. The original luminance value is adjusted to a modulated luminance value. The modulated luminance value is larger than the original luminance value as the original luminance value is larger than a threshold. The modulated luminance value is less than the original luminance value as the original luminance value is less than the threshold. The original first and second chroma values are linearly adjusted to a modulated first chroma value and a modulated second chroma value according to an original vector between the original first and second chroma values and a white point in a color gamut. The modulated luminance value, the modulated first chroma value and the modulated second chroma value are reconverted to a modulated image signal.
Abstract:
An image processing method for individually processing an image of each pixel unit is provided. A red-green-blue color space signal to be input to a pixel unit is transformed into a first brightness signal. The red-green-blue color space signal includes a first red signal, a first green signal and a first blue signal. The first brightness signal is transformed into a second brightness signal to obtain a contrast factor, wherein the contrast factor is a ratio of the second brightness signal and the first brightness signal. The first red signal, the first green signal and the first blue signal are multiplied by the contrast factor to obtain a second red signal, a second green signal and a second blue signal. The second red signal, the second green signal and the second blue signal are performed by color enhancement to obtain a high contrast and colorful image.
Abstract:
The disclosure relates to a standable electronic device, which comprises an electronic device body, a supporting member, and a base. The supporting member is disposed on the electronic device body. The supporting member is disposed on the base. A spreading angle is produced between the electronic device body and the supporting member, so that the bottom of the electronic device rests against the base and hence making the electronic device stand on a surface of object. According to the disclosure, no extra supporting frame is required for making the electronic device stand on a surface of object. Thereby, the portability and utility can be enhanced effectively.
Abstract:
A touch panel, including a substrate, a first electrode structure, a second electrode structure, and an insulating layer. The first electrode structure includes first electrode units and second electrode units, wherein each first electrode unit extends in a first direction, each second electrode unit extends in a second direction, and the first electrode units interlace the second electrode units. The first electrode structure is configured between the second electrode structure and the substrate. The insulating layer is configured between the first electrode structure and the second electrode structure to electrically insulate the first electrode structure from the second electrode structure. In a first touch mode, the second electrode structure does not perform a touch sensing function, while the first electrode units and the second electrode units are electrically independent respectively and perform the touch sensing function. In a second touch mode, the second electrode structure performs the touch sensing function.
Abstract:
A touch panel structure and the manufacturing method thereof are disclosed, in which the manufacturing method includes the steps of: providing a bonding layer; and forming a conductive pattern layer on the bonding layer; wherein the conductive pattern layer is composed of at least one first and at least one second major conductors with an insulation layer interposed between the first and the second major conductors. Comparing with the prior art for manufacturing touch panels, the disclosure is advantageous in material cost, production cost, and production yield; moreover, the panel lamination process can be simplified and the touch panel structure can be joined to a planar or curvy panel and facilitate the design of a thinner product.
Abstract:
In a flat panel display having a first housing and a second housing, features of a frame and a plastic support and a top support, which support, position, and fix each component, are incorporated into the outer top and bottom case, such that no additional structure component is needed for the flat panel display. The first housing has supportive parts and side portions for assembling and supporting each component of the flat panel display and the second housing is then assembled to the first housing for completion of the assembling of the flat panel display.
Abstract:
An image processing method of a flat display panel includes the following steps. A pixel array including a plurality of display units is provided, and each display unit includes two sub-pixels. An image-signal-to-be-processed is provided. The image-signal-to-be-processed includes a plurality of pixel data, and each of the pixel data includes three primary color data of three different primary colors. A display signal generating process is performed to write two primary color data selected from at least one pixel data of the image-signal-to-be-processed to two sub-pixels of the display unit of the pixel array.