Abstract:
The present invention proposes a low temperature poly-silicon thin-film transistor having a dual-gate structure and a method for forming the low temperature poly-silicon thin-film transistor. The low temperature poly-silicon thin-film transistor includes: a substrate, one or more patterned amorphous silicon (a-Si) layers, disposed in a barrier layer on the substrate, for forming a bottom gate, an NMOS disposed on the barrier layer, and a PMOS disposed on the barrier layer. The NMOS comprises a patterned gate electrode (GE) layer as a top gate, and the patterned GE layer and the bottom gate formed by the one or more patterned a-Si layers form a dual-gate structure. The present invention proposes a low temperature poly-silicon thin-film transistor with a more stabilized I-V characteristic, better driving ability, low power consumption, and higher production yield.
Abstract:
The present application relates to a sub-pixel structure, a liquid crystal display device and a method for reducing color shift, the sub-pixel structure comprises a main area, a sub area and a signal wire, and the sub-pixel structure further comprises a first voltage dividing unit, the signal wire is connected to the main area and is connected to the sub area via the voltage dividing unit; the signal wire respectively provides different driving voltages for the main area and the sub area for reducing color shift in a liquid crystal display device. The present application has advantages on solving the color shift in relation to viewing angle in LCDs and greatly reducing cost.
Abstract:
A manufacturing method for an array substrate is disclosed. The method includes: forming a gate electrode on a substrate; depositing a gate insulation layer, a semiconductor layer, a source-drain metal layer and a passivation layer on the gate electrode and the substrate, and through a mask process to perform a patterning process to the semiconductor layer, the source-drain metal layer and the passivation layer in order to form a semiconductor pattern, a source-drain pattern and a contact hole pattern; and forming an ITO pixel electrode on the passivation layer and the contact hole pattern. An array substrate is also disclosed. The present invention adopts one mask process to form the semiconductor pattern, the source-drain pattern and the contact hole pattern such that the process of the array substrate is reduced to three masks in order to reduce the manufacturing cost, reduce the operation time and increase the production efficiency.
Abstract:
The present invention proposes an array substrate and a method for fabricating the same. According to the array substrate and the method of fabricating the array substrate in the present invention, the IGZO pattern and the first electrode strip, the first channel, and the second metallic layer in the corresponding section form the first transistor of the CMOS inverter, and the OSC pattern and the second electrode strip, the second channel, and the second metallic layer in the corresponding section form the second transistor of the CMOS inverter. In this way, the CMOS inverter or the CMOS ring oscillator is fabricated based on IGZO and OSC.
Abstract:
A touch-sensitive panel, touch-sensing method, and method for manufacturing the same are provided. The touch-sensitive panel includes a substrate, an induction line array layer, a dielectric layer, and an LED display panel. The induction line and the scanning line of the LED display panel intersect, and the induction line, the dielectric layer, and the scanning line form an inducing capacitor, which is utilized to generate a touch-sensing signal when the touch-sensitive panel is acted upon by an applied force. The present invention enables the display panel with the touch-sensing function to be thinner.
Abstract:
The present invention provides a method for manufacturing a COA liquid crystal panel and a COA liquid crystal panel. The method includes forming a first pixel electrode layer on a color resist layer, forming a planarization layer on the first pixel electrode layer, and forming a second pixel electrode layer that is in engagement with the first pixel electrode layer on the planarization layer so as to achieve planarization of the pixel electrode layer to the maximum extent. Further, the second pixel electrode layer includes a pixel electrode block that is located in each sub pixel zone and has a lateral border located above a scan line and a longitudinal border located above a signal line so as to achieve self-shielding of light for the scan line and the signal line, allowing for omission of lateral and longitudinal black matrixes. Further, a dot-like black matrix is formed on a glass substrate at a location corresponding to a TFT on the array substrate to shield light for a site of a channel thereby simplifying the manufacturing process and increase the aperture ratio.
Abstract:
The present disclosure relates to a pixel cell circuit of compensation feedback voltage. The pixel cell circuit is provided with the compensation capacitance (C_co), one end of the compensation capacitance (C_co) electrically connects to the compensation level wirings G(m)_co, and the other end of the compensation capacitance (C_co) electrically connects to the drain of the TFT (T1) and the pixel electrode (P). A level of the compensation signals transmitted by the compensation level wirings G(m)_co is opposite to the level of the scanning signals transmitted by the scanning lines G(m). When the pixel electrode has been fully charged, the compensation capacitance generates a pull-up feedback voltage for compensating the pull-down voltage caused by the parasitic capacitance so as to eliminate the effects toward the pixel electrodes caused by the scanning signals transmitted by the scanning lines. This configuration not only decreases the flickers, but also the image sticking. In brief, the display uniformity and the display performance are enhanced.
Abstract:
The present invention provides a TFT substrate and a liquid crystal display panel using the TFT substrate. The TFT substrate includes: first and second sharing capacitors (2, 4) that are connected in parallel. The first sharing capacitor (2) includes a first upper substrate (22), a first lower substrate (24) opposite to the first upper substrate (22), and a first semiconductor layer (26) arranged between the first upper substrate (22) and the first lower substrate (24). The second sharing capacitor (4) includes a second upper substrate (42), a second lower substrate (44) opposite to the second upper substrate (42), and a second semiconductor layer (46) arranged between the second upper substrate (42) and the second lower substrate (44). The first upper substrate (22) of the first sharing capacitor (2) and the second lower substrate (44) of the second sharing capacitor (4) are electrically connected to the pixel electrode (6). The second upper substrate (42) of the second sharing capacitor (4) is electrically connected to the Com trace (8).
Abstract:
A sensing panel and a manufacturing method of the same, and a method for pressure detection and temperature detection are disclosed in the present invention. The sensing panel comprises a scanning line, a first data line, a second data line, a first detection line, a second detection line, a pressure detecting unit, and a temperature detecting unit. The pressure detecting device is used to detect a pressure applied to the pressure detecting unit; the temperature detecting device is used to detect a temperature an object either near the temperature detecting unit or in contact with the temperature detecting unit. The present invention is able to detect the pressure and the temperature applied to the sensing panel.
Abstract:
An organic thin film transistor (OTFT) is disclosed herein. The OTFT has a substrate, a data line, a transfer pad, a source electrode, a drain electrode, an active pattern, a first insulating layer, a gate electrode, a second insulating layer, and a transparent electrode. The data line and the transfer pad are disposed on the substrate. The source electrode and the drain electrode are disposed on the substrate, the data line, and the transfer pad. The active pattern is disposed on the data line, the transfer pad, the substrate, the source electrode, and the drain electrode. With the disposition of the active pattern on the source electrode and the drain electrode, the source electrode and the drain electrode are free from the bombardment of the plasma.