Abstract:
A liquid crystal display (LCD) panel simplifying its testing and manufacturing. The LCD panel includes (formed on a substrate) gate lines, data lines, and pixels including pixel transistors. The LCD panel further includes a plurality test transistors (e.g., data test transistors for driving the odd and even data lines) formed in a package region of a driving IC (integrated circuit) configured to drive the data lines. The plurality of test transistors may be selectively activated (turned ON) during testing before the driving integrated circuit (Driver IC package) is attached (e.g., fixed) to the driving IC package region. The LCD panel may further include a plurality of gate test transistors configured to drive the odd and even gate lines.
Abstract:
A display device includes a display panel, first and second gate drivers and a data driver. The display panel includes pixel regions respectively having first, second and third pixels. The first pixel is coupled to first, second gate lines and a data line. The second gate line is adjacent to the first gate line. The second pixel is coupled to the first gate line and a first data line. The third pixel is coupled to the first gate line and a second data line. The first gate driver provides the first gate line with a first gate driving signal, and the second gate driver provides the second gate line with a second gate driving signal. The data driver provides first and second data lines with image signal. The display quality of the display device may be enhanced and the number of the data lines may be reduced.
Abstract:
A liquid crystal display apparatus is disclosed. A plurality of pixel electrodes are arranged on a display region of a substrate in a matrix form having a plurality of column lines and a plurality of row lines. Each of a plurality of thin film transistors has a first current electrode connected to a corresponding one of the plurality of pixel electrodes. Each of a plurality of data lines is arranged between odd column line and even column line of a pair of the plurality of column lines and is connected to second current electrodes of thin film transistors which are coupled to odd column line and even column line of the pair. Each of a plurality of first gate lines is connected to gate electrodes of odd thin film transistors which are coupled to one of the plurality of row lines. Each of a plurality of second gate lines is connected to gate electrodes of even thin film transistors which is coupled to the one of the plurality of row lines. A data driving circuit is provided for driving the data lines. At least two gate driving circuits having a first gate driving circuit and a second gate driving circuit are provided, wherein the first gate driving circuit is connected to the plurality of first gate lines and the second gate driving circuit is connected to the plurality of second gate lines.
Abstract:
An array substrate includes a transparent substrate, pixel electrodes, switching devices, a data line, a gate line and a light blocking pattern. The light blocking pattern corresponding to a storage electrode is disposed on the transparent substrate, and the light blocking pattern blocks a light leaked from a space between the pixel electrodes. The pixel electrodes are spaced apart from the light blocking pattern by a first distance. The data line is spaced apart from the light blocking pattern by a second distance, and the data line is disposed under a region between the pixel electrodes. The data line is electrically connected to the source electrode, and the data line has a first width. The gate line is electrically connected to the gate electrode to turn on/off the switching devices. Therefore, a black matrix is not required, thereby enhancing an aperture ratio.
Abstract:
A dual side display includes reflection and transmission pixels for displaying an image on both sides of the display. A reflection film provided in a reflection pixel region is extended up to a transmission storage capacitor formation region of a transmission pixel such that the aperture ratio of the reflection pixel is enhanced. An upper storage electrode connected to a transmission storage line is formed between the reflection film and a lower storage electrode of the transmission storage capacitor to prevent a coupling phenomenon between the reflection film and the lower storage electrode and a resulting signal distortion.
Abstract:
Embodiments of methods and systems of the application can transmit data (e.g., voice) using a wireless LAN and a Bluetooth. One system embodiment can include a terminal device, an AP (access point) for communicating with the terminal device according to a first (e.g., wireless LAN) protocol by using a first frequency band among multiple frequency bands of a prescribed frequency band (e.g., ISM frequency band) and a headset for communicating with the terminal device according to a second (e.g., Bluetooth) protocol by using at least one frequency band of remaining frequency bands by excepting the first frequency band.
Abstract:
In one embodiment of the invention, a display device includes a plurality of gate lines transferring gate signals, a plurality of data lines transmitting data voltages, a plurality of storage electrode lines transferring storage signals, and a plurality of pixels arranged in a matrix, each pixel comprising a switching element connected to a gate line and a data line, a liquid crystal capacitor connected to the switching element and a common voltage, and a storage capacitor connected to the switching element and a storage electrode line. The display device may further include a plurality of signal generating circuits generating the storage signals, wherein the signal generating circuit is connected to a k-th storage electrode line, where k is a natural number.
Abstract:
A display substrate includes a first pixel part including a first switching element, a second pixel part including a second switching element, a third pixel part including a third switching element, a first pixel electrode, a second pixel electrode and a third pixel electrode. The third pixel part is adjacent to the first pixel part. The first pixel electrode is electrically connected to the first switching element, and is formed on the first and second pixel part. The second pixel electrode is electrically connected to the second switching element, and is formed on a portion of the second pixel part. The third pixel electrode is electrically connected to the third switching element, and is formed on the first and third pixel parts. Therefore, an opening ratio is increased, thereby improving an image display quality.
Abstract:
A display device includes a display panel, first and second gate drivers and a data driver. The display panel includes pixel regions respectively having first, second and third pixels. The first pixel is coupled to first, second gate lines and a data line. The second gate line is adjacent to the first gate line. The second pixel is coupled to the first gate line and a first data line. The third pixel is coupled to the first gate line and a second data line. The first gate driver provides the first gate line with a first gate driving signal, and the second gate driver provides the second gate line with a second gate driving signal. The data driver provides first and second data lines with image signal. The display quality of the display device may be enhanced and the number of the data lines may be reduced.
Abstract:
A display panel including a first capacitor and a second capacitor is disclosed. The first and second capacitors boost a second driving voltage from a driving chip and apply the boosted second driving voltage to the driving chip. The driving chip receives the boosted second driving voltage and outputs a first driving voltage to drive the display panel. Thus, the display panel does not require any additional capacitor for boosting the second driving voltage, thereby reducing a thickness and a manufacturing cost of the display panel.