Abstract:
A liquid crystal display device and an electronic device, which provide compensation for the difference of brightness caused by the LC effect to improve the image color fidelity is provided. The present invention provides a source driving method for a LCD device including providing data signals representing images to be displayed at a plurality of sub-pixels corresponding to different display wavelengths within a pixel and sequentially activating the sub-pixels within the pixel, in the order from a sub-pixel corresponding to the shortest display wavelength to a sub-pixel corresponding to longest display wavelength.
Abstract:
A transflective liquid crystal display comprising an active device array substrate, a facing substrate, a liquid crystal layer and a reflector. The liquid crystal molecules in the transparent area are driven by a potential between the transparent pixel electrode and the common electrode. The liquid crystal molecules in the reflective area are driven by a potential between the transparent pixel electrode and the active device array substrate or the auxiliary electrode on the facing substrate. Under the condition of a single cell gap, the electric field applied to the transparent area and the reflective area can control the change in effective phase so as to optimize the performance.
Abstract:
A transflective display device has an upper substrate, a lower substrate and a liquid crystal layer interposed therebetween. A reflective electrode layer is formed overlying the inner surface of the lower substrate to serve as a reflective area of a pixel electrode. A transparent electrode layer is formed overlying the inner surface of the lower substrate, in which the transparent electrode layer not covered by the reflective electrode layer serves as a transmissive area of a pixel electrode. A first polarizer is formed overlying the outer surface of the upper substrate. A second polarizer is formed overlying the outer surface of the lower substrate. An optical compensation plate is formed between the second polarizer and the lower substrate.
Abstract:
A transflective liquid crystal display device having one or more substrates is provided. A light emitting device is disposed at an edge of one of the substrates, such as the lower substrate. An insulating layer is disposed on the lower substrate and is formed with a plurality of notches. Each notch has a first angled sidewall and a second angled sidewall. The second angled sidewall has an included angle from horizontal. A first reflective layer may also be provided on top of the insulating layer and extend onto the second angled sidewall. The first reflective layer on the second angled sidewall faces the light emitting device and may assist in reflecting light from the light emitting device.
Abstract:
A transflective liquid crystal display comprising an active device array substrate, a facing substrate, a liquid crystal layer and a reflector. The liquid crystal molecules in the transparent area are driven by a potential between the transparent pixel electrode and the common electrode. The liquid crystal molecules in the reflective area are driven by a potential between the transparent pixel electrode and the active device array substrate or the auxiliary electrode on the facing substrate. Under the condition of a single cell gap, the electric field applied to the transparent area and the reflective area can control the change in effective phase so as to optimize the performance.
Abstract:
An LCD panel having a novel substrate structure, which has optical characteristics that extend the range of horizontal viewing angles with improved contrast ratio, and that extend range of vertical viewing angles with reduced grayscale inversion effect. In one aspect, the substrate structure includes an alignment layer provided with a plurality of first alignment grooves that are aligned at an angle close to an axis parallel to one edge of the display area. The angle may be 0° or ranges from +20° to −20° relative to the edge of the display area. The LCD panel comprises two opposing substrate structures, with the alignment grooves orthogonal to each other.
Abstract:
A transflective LCD panel is disclosed. It uses a backlight structure of a transmissive LCD panel. Polarizers with compensation films are added to the top and bottom of the LCD panel. Through appropriate rotations of the liquid crystal materials and the angle between the compensation film polarization direction and the polarizer, the display panel of the transmissive LCD can also achieve reflection effects.
Abstract:
An array substrate for a transflective liquid crystal display device is disclosed. The array substrate includes a substrate; a plurality of scanning lines and data lines on the substrate, crossing each other to define a plurality of pixel regions; a transmissive electrode disposed in the transmission region; and a reflector disposed in the reflection region and not subjected to a voltage. A lateral field is generated in the reflection region. The transflective LCD of the present invention achieves the maximum light efficiency in both reflection and transmission modes.
Abstract:
A transflective liquid crystal display device having one or more substrates is provided. A light emitting device is disposed at an edge of one of the substrates, such as the lower substrate. An insulating layer is disposed on the lower substrate and is formed with a plurality of notches. Each notch has a first angled sidewall and a second angled sidewall. The second angled sidewall has an included angle from horizontal. A first reflective layer may also be provided on top of the insulating layer and extend onto the second angled sidewall. The first reflective layer on the second angled sidewall faces the light emitting device and may assist in reflecting light from the light emitting device.
Abstract:
A pixel structure with multiple storage capacitors. A display unit has a transistor with a main storage capacitor coupled thereto. A storage capacitance supply device has at least one secondary storage capacitor, whose connection thereto is determined according to a driving frequency of the display unit.