Abstract: A method of driving a liquid crystal display panel including the steps of sequentially applying first-polarity gate pulses to odd-numbered gate lines of the liquid crystal display panel such that a portion of one of first-polarity gate pulse applied to one odd-numbered gate line is superposed with at least another first-polarity gate pulse applied to a second odd-number gate line; sequentially applying second-polarity gate pulses to even-numbered gate lines of the liquid crystal display panel such that a portion of one second-polarity gate pulse applied to one even-numbered gate line is superposed with another second-polarity gate pulse applied to a second even-numbered gate line; and applying data pulses to the data lines in synchronization with the gate pulses. The liquid crystal display panel has pixels arranged at intersections between gate lines and data lines.

Abstract: A integrated circuit driving unit for a LCD device includes a base film having first and second regions; first and second input lines on the base film; first and second output lines on the base film; first and second input pads at a boundary of the base film connected to one end of each of the first and second input lines, respectively; first and second output pads at a boundary of the base film connected to one end of each of the first and second output lines; first and second input terminals in the first and second regions of the base film connected to the other end of each of the first and second input lines, respectively; and first and second output terminals in the first and second regions of the base film connected to the other end of each of the first and second output lines, respectively.

Abstract: A liquid crystal display and a fabricating method thereof that are capable of realizing a high aperture ratio as well as implementing a high-density storage capacitor. The liquid crystal display is provided with a data line supplied with a data signal, a gate line supplied with a scanning signal, a pixel electrode for driving a liquid crystal cell, and a thin film transistor for applying the data signal to the pixel electrode in response to the scanning signal. In the liquid crystal display, a gate insulating film covers the gate line. A storage electrode is formed at the interior of the gate insulating film to overlap with the gate line. Accordingly, the storage electrode is formed within the gate insulating film to reduce a thickness between the conductive materials, thereby increasing a capacitance value. As a result, the storage capacitor area is set to a small size to thereby improve an aperture ratio.

Abstract: A packaging structure of a driving circuit for a liquid crystal display device comprises a base film, a plurality of first metal lines being formed on the base film and being disposed with a certain distance between neighboring first metal lines, an insulating film on the first metal lines, the insulating film exposing both ends of the first metal lines, and a plurality of second metal lines on the insulating film, the second metal lines being formed parallel to the first metal lines.

Abstract: An LCD device and a method for manufacturing the same are disclosed, in which a width of a gate line is decreased by forming a storage capacitor of a high capacitance with a small area, and by improving an aperture ratio, thereby obtaining high picture quality.

Abstract: A reflectance-type liquid crystal display device includes a first light scattering unit on a first substrate, a reflecting layer having a second light scattering unit on a second substrate, and a liquid crystal layer between the two substrates. One of the two light scattering units defines a regular-directional scattering unit which can easily control the reflectance characteristics, and the other light scatterin unit defines a random-directional scattering unit which prevents the light interference caused by the regular-directional scattering unit.

Abstract: An LCD panel of high resolution (with decreased pixel pitch) and a method for manufacturing the same. In the LCD panel, the even numbered data lines are formed only up to the cell region of a substrate and then extended up to the pad region using conductive patterns. With the use of refracted conductive patterns, the even numbered data pads could be extended from the even numbered data lines and arranged parallel to the odd-numbered data pads along the longitudinal direction of odd-numbered data lines, thereby decreasing the pitch. Instead of using the conductive patterns, the even numbered data lines may be made longer than the odd numbered data lines in the pad region and may be refracted appropriately to arrange the even numbered data pads in parallel to the odd numbered data pads along the longitudinal direction of the odd numbered data lines.

Abstract: A liquid crystal display includes a first substrate; a second substrate cohered to the first substrate with a separation from the first substrate; a first orientation film formed on an inner surface of the first substrate; a second orientation film formed on an inner surface of the second substrate; and a liquid crystal injected between the first substrate and the second substrate, wherein the first orientation film and the second orientation film are formed to face each other, and the thickness of the first orientation film or the second orientation film is formed differently in different portions.

Abstract: A reflective-type liquid crystal display device is disclosed which comprises first and second substrates; a metal layer having a convex-concave surface over the insulating layer; a &lgr;/4 phase retardation optical film over the second substrate. The convex portion of the metal has a long width in a first direction perpendicular to the main viewing angle direction of the user. Polarization direction of the polarizer is at 90° with respect to the first direction, and slow axis of the optical film is at 45° with respect to the polarization direction. This reflective-type LCD has a high reflective luminance in the main viewing angle direction. Further, because TE(transverse electric) polarized light is incident on the metal transverse electric, the reflective luminance is much more improved.

Abstract: A color filter of a liquid crystal display and method of fabricating the same is disclosed in the present invention. More specifically, a color filter of a liquid crystal display includes a glass substrate, a color resin layer on the glass substrate, and a transparent electrode over the color resin layer, wherein the color resin layer has transmission and reflection sections, and the reflection section has first and second portions, wherein the first portion is patterned and the second portion is not patterned, thereby controlling a quantity of light passing through the reflection section.