Abstract: A color filter is described, including a first color filter layer, a first light absorbing layer, a second color filter pattern and a second light absorbing pattern. The first color filter layer is disposed over a substrate. The first light absorbing layer is disposed between the substrate and the first color filter layer. The second color filter pattern covers a portion of the first color filter layer. The second light absorbing pattern is disposed between the second color filter pattern and the first color filter layer.

Abstract: A liquid crystal panel includes a first substrate having thereon a display active region; an inner spacer wall disposed on the first substrate along periphery of the display active region; an outer spacer wall disposed adjacent to the inner spacer wall on the first substrate; a groove formed between the inner spacer wall and the outer spacer wall; a seal spread in the groove; a second substrate being supported by the inner spacer wall and the outer spacer wall and being glued to the first substrate via the seal, wherein the first substrate, the second substrate and the inner spacer wall define a chamber; and a liquid crystal layer filling the chamber by using one-drop-fill process.

Abstract: A color filter is described, including a first color filter layer, a first light absorbing layer, a second color filter pattern and a second light absorbing pattern. The first color filter layer is disposed over a substrate. The first light absorbing layer is disposed between the substrate and the first color filter layer. The second color filter pattern covers a portion of the first color filter layer. The second light absorbing pattern is disposed between the second color filter pattern and the first color filter layer.

Abstract: A liquid crystal panel includes a first substrate having thereon a display active region; an inner spacer wall disposed on the first substrate along periphery of the display active region; an outer spacer wall disposed adjacent to the inner spacer wall on the first substrate; a groove formed between the inner spacer wall and the outer spacer wall; a seal spread in the groove; a second substrate being supported by the inner spacer wall and the outer spacer wall and being glued to the first substrate via the seal, wherein the first substrate, the second substrate and the inner spacer wall define a chamber; and a liquid crystal layer filling the chamber by using one-drop-fill process.

Abstract: A liquid crystal panel includes a first substrate having thereon a display active region; an inner spacer wall disposed on the first substrate along periphery of the display active region; an outer spacer wall disposed adjacent to the inner spacer wall on the first substrate; a groove formed between the inner spacer wall and the outer spacer wall; a seal spread in the groove; a second substrate being supported by the inner spacer wall and the outer spacer wall and being glued to the first substrate via the seal, wherein the first substrate, the second substrate and the inner spacer wall define a chamber; and a liquid crystal layer filling the chamber by using one-drop-fill process.

Abstract: A method for fabricating a color filter is disclosed. First, a substrate having a dielectric layer and a passivation thereon is provided. Next, a first pattern transfer process is performed to form a trench in the dielectric layer and the passivation layer, and a color filter is formed in the trench, in which the color filter partially covers the surface of the passivation layer. Next, a chemical mechanical polishing process is performed to planarize the color filter, such that the surface of the color filter is even with the surface of the passivation layer.

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: A liquid crystal panel includes a first substrate having thereon a display active region; an inner spacer wall disposed on the first substrate along periphery of the display active region; an outer spacer wall disposed adjacent to the inner spacer wall on the first substrate; a groove formed between the inner spacer wall and the outer spacer wall; a seal spread in the groove; a second substrate being supported by the inner spacer wall and the outer spacer wall and being glued to the first substrate via the seal, wherein the first substrate, the second substrate and the inner spacer wall define a chamber; and a liquid crystal layer filling the chamber by using one-drop-fill process.

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: 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: 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: An off-axis optical engine in an LCoS projection system has an LCoS panel, and the LCoS panel has a liquid crystal layer with a longitudinal axis of liquid crystal molecules parallel to an incident direction of a first light beam directed to the LCoS panel. The liquid crystal molecules in the liquid crystal layer are vertically aligned and pretilted by an angle of about 0-20 degrees.

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: 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 liquid crystal display includes a silicon substrate, a micro color filter, a bottom alignment layer, a liquid crystal layer, a top alignment layer, a transparent conductive layer, and a glass substrate stacked in sequence. While a light gets into the liquid crystal display panel, only a specific spectrum of the incident light is transmitted through the micro color filter and is then reflected upward by the silicon substrate to display images.

Abstract: A method for forming a non-rubbing alignment layer is provided. A vacuum chamber disposed therein with an evaporation source, a substrate, and an ion source is prepared. The substrate has a flat main surface facing the evaporation source. The ion source generates an ion beam that bombards the flat main surface with an oblique incident angle ? with respect to a line normal to the flat main surface. The substrate is rotated at a constant rotation speed. The evaporation source is heated to vaporize inorganic substances of the evaporation source to diffuse and deposit onto the flat main surface substantially along the line normal to the flat main surface, thereby forming the non-rubbing alignment layer. During deposition of the non-rubbing alignment layer, the ion beam emanated from the ion source continues to bombard the flat main surface.