Abstract:
A thin film transistor having a single LDD structure with a halo structure is provided. The single LDD structure is disposed between source/drain structures, and having a first side adjacent to a first one of the source/drain structures and a second side spaced from a second one of the source/drain structures by essentially a semiconductor material. The halo structure is adjacent to the LDD structure partially or largely covering the LDD structure.
Abstract:
A reflective liquid crystal display disclosed herein includes a transistor substrate, a color filter substrate, a first lower electrode, a first upper electrode, a first transparent insulator, a second transparent insulator, a second lower electrode, a second upper electrode and a liquid crystal layer. The first lower electrode, the first transparent insulator and the second lower electrode are formed sequentially on the top surface of the transistor substrate. The first upper electrode, the second transparent insulator and the second upper electrode are fabricated sequentially on the bottom surface of the color filter substrate. The liquid crystal layer is sandwiched between the second lower electrode and the second upper electrode. One of the first lower electrode and the second lower electrode is electrically connected to a plurality of transistors and reflects the external light.
Abstract:
This invention relates to a liquid crystal display (LCD) device having the best performance of contrast ratio and color saturation in the transmissive and reflective areas of color LCD by adjusting the thicknesses of two color filters on the lower and upper transparent substrates. The present invention includes a first substrate having a reflective area and a transmissive area, and a plurality of thin film transistors (TFTs) thereon; a dielectric layer on said first substrate; a first color filter on said dielectric layer; an elevated dielectric layer on said first color filter in said reflective area; a first electrode on said elevated dielectric layer in said reflective area and on said first color filter in said transmissive area, wherein the top surface of said first electrode in said reflective area is higher than the top surface of said first electrode in said transmissive area; a liquid crystal layer on said first electrode; a second electrode on said liquid crystal layer; a second color filter on said second electrode; and a second substrate on said second color filter.
Abstract:
A plane display device with touch panel uses a light guide plate of front light of LCD as the substrate of touch panel to replace the glass substrate of conventional touch panel.
Abstract:
An assembly structure for flat panel display device includes a liquid crystal display device with a back light as well as a liquid crystal display panel thereon, and a system mainboard with a control IC mounted on the system mainboard to control the liquid crystal display device. The liquid crystal display device is on the system mainboard and electrically connected to the system mainboard by the direct wire bonding method.
Abstract:
A structure of color elements for a color filter. At least a first, second, and third color element are disposed in a delta-type arrangement. An overlapping portion is formed between two adjacent color elements to serve as a light-blocking area. Each color element is octagonal, having four straight sides and four beveled sides.
Abstract:
A liquid crystal display (LCD) interface that includes a plurality of first transmission lines including N sets of transmission lines, each set of the first transmission lines being associated with a pixel formed in the LCD device, and a plurality of second transmission lines, each being coupled to one the plurality of first transmission lines, the plurality of second transmission lines including a plurality of sets, alternating in odd-numbered and even-numbered sets, each set of the second transmission lines corresponding to the plurality of first transmission lines, and each set including a plurality of subsets, each being associated with a pixel formed in the LCD device, wherein an M-th subset of each of the odd-numbered sets of the second transmission lines is coupled to an M-th set of the first transmission lines, and an M-th subset of each of the even-numbered sets of the second transmission lines is coupled to an (NnullMnull1)-th set of the first transmission lines, M being an integral between 1 and N.
Abstract:
A dual-display liquid crystal display structure having first and second display regions. A first substrate and a second substrate opposite the first substrate are provided. A pixel electrode pattern is formed on the first substrate. A reflective layer is formed on an interior or exterior side of the second substrate in the second display region. A filter is formed on the second substrate and the reflective layer. A common electrode is formed on the filter. A liquid crystal layer is disposed between the first substrate and the second substrate. A light device is disposed on an exterior side of the first substrate.
Abstract:
A structure of a thin film transistor (TFT) planar display panel is disclosed. The structure includes a light-transmissible substrate, a buffer layer formed on the light-transmissible substrate, a top-gate TFT structure formed on the buffer layer and including a channel region, and a light-shielding structure formed between a back light source and the top-gate TFT structure, and substantially aligned with the channel region for protecting the channel region from illumination of the back light source. The process for manufacturing a TFT planar display panel is also disclosed.
Abstract:
A method for producing a thin film transistor and including the following steps for preparing a glass substrate; having a positive photosensitive coating on the glass substrate; providing a transparent mold plate, having a plurality of ladder opaque protrusions in accordance with a predetermined pattern having different depth; controlling the transparent mold plate downwardly to press into the positive photosensitive coating and non-contacting to the glass substrate; exposing a part of the positive photosensitive coating via an explosion by a UV light; remaining the other part of the positive photosensitive coating, which is shielded by the protrusions and shaped corresponding to the predetermined pattern; separating the transparent mold plate from the glass substrate, and removing the other parts of the photosensitive coating unshielded via a chemical solvent. Thereby, after the positive photosensitive coating is pressed, cured, and cleaned the thin film transistor is formed.