Abstract: A color sequential image method for displaying images using two color fields includes analyzing and sorting percentages of a plurality of colors constituting an input color image, in which a first color possesses a most percentage, a second color possesses a middle percentage, and a third color possesses a third percentage. The method further includes forming a first color field image according to the first color and the third color, and a second color field image according to the second color and the third color.

Abstract: A color sequential image method for displaying images using two color fields includes analyzing and sorting percentages of a plurality of colors constituting an input color image, in which a first color possesses a most percentage, a second color possesses a middle percentage, and a third color possesses a third percentage. The method further includes forming a first color field image according to the first color and the third color, and a second color field image according to the second color and the third color.

Abstract: A switching module capable of adjusting a visual angle is disclosed. The switching module includes an edge-type optical substrate, a light source disposed by a side of the edge-type optical substrate, and an optical modulating component disposed between the light source and the edge-type optical substrate. The edge-type optical substrate has an emitting surface. The light source includes a plurality of light units. Each light unit can emit a beam to the edge-type optical substrate according to a predetermined angle. The optical modulating component can modulate divergence of the beam emitted from the light unit, so that the beam can be guided out of the edge-type optical substrate via the emitting surface according to the predetermined angle.

Abstract: A color sequential image method for displaying images using two color fields includes analyzing and sorting percentages of a plurality of colors constituting an input color image, in which a first color possesses a most percentage, a second color possesses a middle percentage, and a third color possesses a third percentage. The method further includes forming a first color field image according to the first color and the third color, and a second color field image according to the second color and the third color.

Abstract: A switching module capable of adjusting a visual angle is disclosed. The switching module includes an edge-type optical substrate, a light source disposed by a side of the edge-type optical substrate, and an optical modulating component disposed between the light source and the edge-type optical substrate. The edge-type optical substrate has an emitting surface. The light source includes a plurality of light units. Each light unit can emit a beam to the edge-type optical substrate according to a predetermined angle. The optical modulating component can modulate divergence of the beam emitted from the light unit, so that the beam can be guided out of the edge-type optical substrate via the emitting surface according to the predetermined angle.

Abstract: The present disclosure discloses a display device including a display unit, a backlight module, a decoding device, and a backlight driver. The display unit includes a plurality of pixels, including a plurality of sub-pixels, arranged in a matrix. The decoding device decodes an encoded RGB data stream, and produces a dimming control signal, wherein the encoded RGB data stream is arranged to drive each of the sub-pixels to display a frame, the encoded RGB data stream includes a first set of the encoded RGB data stream corresponding to a row of pixels of the frame and having binary data corresponding to each of the light emitting elements, and the decoding device produces the dimming control signal according to the binary data. The backlight driver controls brightness of a plurality of light emitting elements of the backlight module according to the dimming control signal.

Abstract: A multi-stable liquid crystal display device is provided. The device includes a first substrate, a second substrate, a first electrode, a second electrode and a liquid crystal layer. The first substrate and the second substrate are disposed opposite to each other. The first electrode is disposed on the first substrate. The second electrode is disposed on the side of the second substrate facing the first substrate. At least one of the first electrode and the second electrode includes a grating electrode. The liquid crystal layer includes smectic liquid crystal molecules. Moreover, a method of driving the multi-stable liquid crystal display device is further provided in the present invention.

Abstract: A liquid crystal alignment layer and a method for manufacturing the same are provided. The liquid crystal alignment layer includes an organic material layer and a plurality of silicon dioxide particles. The plurality of silicon dioxide particles is formed on the organic material layer, and each silicon dioxide particle contains at least one amino (—NH2) group.

Abstract: A liquid crystal composite is provided, which includes a liquid crystal compound and a nanoparticle. The liquid crystal compound is an optically compensated birefringence (OCB) liquid crystal compound. The nanoparticle has at least one acrylic functional group on the main chain or side chain thereof. The nanoparticle is 0.1-2 wt % by weight of the liquid crystal composite.

Abstract: A liquid crystal composite is provided, which includes a liquid crystal compound and a nanoparticle. The liquid crystal compound is an optically compensated birefringence (OCB) liquid crystal compound. The nanoparticle has at least one acrylic functional group on the main chain or side chain thereof. The nanoparticle is 0.1-2 wt % by weight of the liquid crystal composite.

Abstract: A thin film transistor (TFT) includes a poly-silicon island, a gate insulating layer, a gate stack layer, and a dielectric layer. The poly-silicon island includes a source region and a drain region. The gate insulating layer covers the poly-silicon island. The gate stack layer is disposed on the gate insulating layer and includes a first conductive layer and a second conductive layer. A length of the first conductive layer is less than a length of the second conductive layer. The dielectric layer covers the gate insulating layer and the gate stack layer, and therefore a number of cavities are formed between the second conductive layer and the gate insulating layer.

Abstract: A method for fabricating a thin film transistor is described. The method includes: providing a substrate; forming a sacrificial layer on the substrate; forming a polysilicon pattern layer on the substrate to surround the sacrificial layer; forming a gate insulation layer to cover at least the polysilicon pattern layer; forming a gate pattern on the gate insulation layer above the polysilicon pattern layer; forming a source region, a drain region, and an active region in the polysilicon pattern layer, wherein the active region is between the source region and the drain region; forming a passivation layer to cover the gate pattern and a portion of the gate insulation layer; forming a source conductive layer and a drain conductive layer on the passivation layer, wherein the source conductive layer and the drain conductive layer are electrically connected to the source region and the drain region of the polysilicon pattern layer respectively.

Abstract: An optically self-compensated birefringence liquid crystal display (OCB-LCD) panel including a first substrate, a first splay aligned layer, a second substrate and an OCB liquid crystal layer is provided. A first alignment layer is disposed on a surface of the first substrate. The first splay aligned layer is disposed on a surface of the first alignment layer, and the material of the first splay aligned layer includes a polymer polymerized by a first reactive mesogen (RM) monomer. The second substrate is disposed opposite to the first substrate, and a second alignment layer is disposed on a surface of the second substrate. The OCB liquid crystal layer is interposed between the first substrate and the second substrate.

Abstract: A driving apparatus for a displayer and a method thereof are provided. The driving apparatus includes an image processing unit, a timing controller, and a backlight controller. The image processing unit divides a frame period into an image period and a dark state period. During the dark state period, black (or gray) insertion is performed to an image with a black (or gray) frame through a scan backlight technique. During the image period, the image data is displayed through a dynamic backlight technique. Thereby, the contrast of the displayer is improved and the power consumption thereof is reduced.

Abstract: A pixel including a transistor, a liquid crystal capacitor, a storage capacitor and a coupling capacitor is provided. The first end of the transistor is connected to a data line, the liquid crystal capacitor and the storage capacitor are coupled between the second end of the transistor and a common voltage, and the coupling capacitor is connected between the second end of the transistor and a select line. After a driving voltage is outputted to the liquid crystal capacitor and the storage capacitor by the data line, the select line inputs a pulse signal to the liquid crystal capacitor through the coupling capacitor. The pulse signal is capable of increasing the ability of the electric field for driving the liquid crystal so that the liquid crystal can still display normally in the bend state even though the lowest pixel voltage is lower than the critical voltage.

Abstract: A pixel circuit and a driving method thereof in a liquid crystal display (LCD) panel and an LCD are provided. One select line is added to the pixel circuit of the present invention. When the pixel circuit is in a holding state, a select signal is provided to the select line for pulling up the voltage level of the pixel electrode. Therefore, the insertion of the black frames into the images in the LCD panel and the LCD is completed by the present invention during one frame period.

Abstract: A method and structure for broadening cholesteric liquid crystals spectrum are described. An electrode structure is added on a side of cholesteric liquid crystals, for producing a fringe field which is perpendicular to a screw axis of the cholesteric liquid crystal. Hence, the thread pitches of cholesteric liquid crystals near the electrode structure are lengthened, but the other thread pitches of cholesteric liquid crystals far from the electrode structure remain the same. Besides, light having appropriate wavelength is used to congeal the cholesteric liquid crystals having a polymeric characteristic, so that the cholesteric liquid crystals have varied thread pitches while no voltage is applied to the electrode structure. Therefore, the spectrum of cholesteric liquid crystals and applications thereof are widened.

Abstract: A structure of liquid crystal display (LCD) and a manufacturing method thereof are disclosed, wherein photoresist is used to form bottom bumps of square frame shape on the thin film transistor (TFT) substrate, and top bumps of H shape are formed on the color filter (CF) substrate. After aligning and combining two substrates, both top and bottom bumps can be stacked together to form overlapped areas. By arranging the top bumps and the bottom bumps, ratio of liquid crystal molecules arranged in different directions between two substrates can be controlled, thereby obtaining a wide uniform view angle.

Abstract: A method and system for designing a liquid crystal display device is provided. The method and system include the following steps. They are: based upon at least one viewing angle among a plurality of liquid crystal display films, determine a range of a gap between liquid crystal cells of a liquid crystal display device; based upon the panel transmittance and gamut of a plurality of liquid crystal modules, determine at least one value of the gap between liquid crystal cells of the liquid crystal display device; based upon optic characteristics of a plurality of color filter films and color modules, determine a set of optic characteristics for a color filter as well as for the liquid crystal display device; and adjusting values related to the set of optic characteristics of the liquid crystal display device and the color filter. Thereby a set of adjusted values for present as well as future design purposes is produced.