Abstract: A vehicle headlamp is provided. The vehicle headlamp includes a lampshade, a lamp base provided at the lampshade, a light source module provided at the lamp base, a light source adjusting mechanism connected between the lampshade and the lamp base and a heat dissipation module. Wherein, lampshade has an opening, and the light source adjusting mechanism can adjust the relative position between the lampshade and the lamp base. In addition, the heat dissipation module provided between the light source module and the lamp base can extend to the external side of the lampshade via the opening.

Abstract: A light emitting diode (LED) table lamp including a base, a support arm, a pivot, and a light emitting device is provided. One end of the support arm is connected to the base, and the pivot is provided at the other end of the support arm. The light emitting device includes a lampshade, a LED light assembly provided at the lampshade, and at least a heat pipe. The lampshade is pivotally connected to the support arm by the pivot, and the heat pipe is provided at the LED light assembly. In addition, an end of the heat pipe is tightly fitted with the pivot.

Abstract: An apparatus and a method for compensating uniformity of film thickness are provided. A shielding plate is provided between a vapor deposition object and a evaporation source. During the vapor deposition process, a shielding plate is continuously moved according to film deposition rates, so as to selectively pass or block atoms emitted from the evaporation source to achieve purpose of adjustably depositing.

Abstract: A heat dissipation module including a base, a heat pipe and a fastener is provided. The base has a holding space, and the heat pipe is provided through the holding space. In addition, the fastener is inserted into the holding space. The fastener includes a body and at least an elastomer extending from the body, wherein the elastomer is suitable to press against the heat pipe to make the heat pipe tightly assembled with the base.

Abstract: A method of packaging light emitting diodes includes providing a wafer having a plurality of LEDs thereon, forming at least a sealant surrounding the LEDs, providing a glass substrate to cover the LEDs, the sealant, and the wafer, providing a UV hardening process to harden the sealant, forming a polarization film on the glass substrate, and dicing the wafer.

Abstract: An LCOS panel has a back plane, a plurality of pixel electrodes positioned on a surface of the back plane, a light absorbent layer positioned on the pixel electrodes, a micro dichroic layer positioned on the light absorbent layer, and a liquid crystal layer filled between the micro dichroic layer and the front plane.

Abstract: An LCOS display panel includes a silicon substrate having a plurality of pixels arranged in a pixel array thereon, a transparent substrate positioned above the silicon substrate, a liquid crystal layer positioned between the transparent substrate and the silicon substrate, and a plurality of micro color filters positioned on the top surface of the transparent substrate and corresponding to subpixels of the pixels.

Abstract: A pixel driving method is provided. The driving method includes selecting subpixels from different frame periods with different selecting modes in order to form a pixel array, and driving the pixel array. Different pixel arrays that are formed with subpixels selected from different frame periods are shifted by a distance of one subpixel along the row direction, the column direction, or both directions from each other. Thus, the image resolution of a display panel is improved.

Abstract: An LCOS display panel includes a back plane, a plurality of pixel electrodes arranged in an array and positioned on the back plane, a multi-layer reflecting thin film positioned on the pixel electrodes, a front plane positioned above the multi-layer reflecting thin film, and a liquid crystal layer filled in between the multi-layer reflecting thin film and the front plane.

Abstract: A light source module is provided. The light source module comprises a substrate, a reflective device and a plurality of light emitting diodes. The substrate comprises an opening, the reflective device a comprising light reflecting surface is disposed on one side of the substrate. In addition, the light emitting diode is disposed over the substrate locating between the reflective device and the substrate, and the LEDs are arranged in a plurality of concentric circles around the opening of the substrate. Lights emitted by the light emitting diodes are reflected the light reflecting surface pass through the opening converge on the other side of the substrate. The light source module is constructed using simple optical components and is capable of outputting uniform light.

Abstract: The present invention provides a method of manufacturing an LC alignment film utilizing long-throw sputtering. The method includes putting a substrate on a substrate carrier in a chamber, utilizing high-density plasma to bombard a target over the substrate to produce sputtering species, and providing a bias voltage in the chamber. Nearly vertical directional sputtering species are deposited on the surface of the substrate to form an LC alignment film. The distance between the target and the substrate is more than 20 cm.

Abstract: A SLM includes a pixel array. The pixel array contains a plurality of quadrilateral pixels with the same size, wherein an interior angle of each of the quadrilateral pixels is an acute angle. Each of the quadrilateral pixels further contains a first subpixel, a second subpixel, and a third subpixel.

Abstract: A liquid crystal on silicon (LCOS) display device using white light of light emitting diode (LED) as light source is provided. The LCOS display device comprises a white light source, a color separation and polarization device, and a LCOS panel device. The white light source is provided for emitting a white light. The color separation and polarization device is disposed on a light path of the white light, and adapted for separating and polarizing the white light to obtain a plurality of polarized monochromatic lights. The LCOS panel device is disposed on a light path of the polarized monochromatic lights, and the polarized monochromatic lights are partially polarized according to an inputted image signal. Thereafter, the partially polarized monochromatic lights are combined to obtain an output image signal.

Abstract: An optical projection system comprising a light source, a beam splitter module, a plurality of spatial light modulators, an optical combiner module and a projection lens is provided. The light source is used for providing a first white light. The beam splitter module is disposed in the light path of the first white light to separate the first white light into a plurality of second white lights. The spatial light modulators are disposed in the light paths of the second white lights respectively. Each spatial light modulator comprises a color filter to modulate each second white light into a color light carrying with corresponding color image signal. The optical combiner module is disposed in the light paths of the color lights to combine the color lights. The projection lens is disposed in the light path of the combined color lights after the optical combiner module to project the combined color light to be an image.

Abstract: A color management method of an SLM performs the color management function by forming a plurality of micro color filters corresponding to each pixel, and adjusting the transmission rate of the micro color filters.

Abstract: A SLM includes a pixel array. The pixel array contains a plurality of quadrilateral pixels with the same size, wherein an interior angle of each of the quadrilateral pixels is an acute angle. Each of the quadrilateral pixels further contains a first subpixel, a second subpixel, and a third subpixel.

Abstract: An LCOS panel has a back plane, a plurality of pixel electrodes positioned on a surface of the back plane, a light absorbent layer positioned on the pixel electrodes, a micro dichroic layer positioned on the light absorbent layer, and a liquid crystal layer filled between the micro dichroic layer and the front plane.

Abstract: A frame attaching process is described. The frame attaching process is adapted for attaching a transparent substrate to an active area of a chip using a frame, wherein the active area of the chip has a functional area. In the frame attaching process, the frame can be formed on the attaching surface of the transparent substrate or on the active area of the chip. Then, the attaching surface of the transparent substrate is attached to the active area of the chip using the frame under a negative pressure. Finally, the frame is solidified. Therefore, in the frame attaching process, the possibility of frame cracking can be reduced and the yield of the frame attaching process can be improved.

Abstract: A method of manufacturing a color filter array is provided. The manufacturing method is as follows. Step (a), form a patterned first photoresist layer over a substrate. The patterned first photoresist layer has a plurality of openings that exposes a portion of the substrate. Step (b), form a filter material layer on the exposed area of the substrate. Step (c), form a second photoresist layer on the filter material layer. Step (d), remove the first and the second photoresist layer such that the filter material layer forms a plurality of first filter films. Step (e), repeat step (a) to (c) at least once and remove the first and the second photoresist layer to form a plurality of second filter films in areas except the first color filter films. The aforementioned method of forming the color filter array can form filter films having perpendicular sidewalls on the substrate.

Abstract: An LCOS display panel includes a silicon substrate having a plurality of pixels arranged in a pixel array thereon, a transparent substrate positioned above the silicon substrate, a liquid crystal layer positioned between the transparent substrate and the silicon substrate, and a plurality of micro color filters positioned on the top surface of the transparent substrate and corresponding to subpixels of the pixels.