Abstract:
The present invention discloses a liquid crystal driving circuit, comprising the first to fifth electric switches and the first to fourth capacitors. The first and second capacitors are in the main area, and the third and fourth capacitors are in the sub area. The first to third capacitors are coupled in series. The first and second capacitors, the third and fourth capacitors are respectively coupled in parallel between the first and second electric switches and the common voltage end. The fourth and fifth electric switches are coupled in series between the data end and the second electric switch. The first to fourth electric switches are controlled with the gate control end. The data end is respectively coupled to the first, second and fourth electric switches.
Abstract:
A driving circuit includes a driving unit. Each of the driving unit includes a body portion and a voltage-level maintaining portion, connected to the first sub-line and the second sub-line of the body portion. The voltage-level maintaining portion includes a transistor having a controlling terminal connected to the first sub-line, an input terminal connected to a first voltage-level signal input terminal of the body portion, and an output terminal connected to the second sub-line. The present disclosure can enhance the stability of the driving circuit over the display period and the touch sensing period.
Abstract:
The invention provides a GOA circuit, a display panel and a display device. The GOA circuit includes: a first voltage stabilizing module, including a first capacitor and a second capacitor, and one end of the first capacitor is connected to a connection point between a forward scan control signal and a forward and reverse scan control module; one end of the second capacitor is connected to a connection point between a reverse scan control signal and the forward and reverse scan control module.
Abstract:
A thin film transistor (TFT) array substrate is provided. The TFT array substrate includes a display device plate and a semiconductor layer disposed on the display device plate. A thickness of the semiconductor layer is less or equal to 35 nm.
Abstract:
A gate driver circuit and a liquid crystal panel using the same are provided. The gate driver circuit includes a forward/reverse switching module, a low electrical potential line, and a synchronization module. The forward/reverse switching module includes an up to down terminal and a down to up terminal. The synchronization module is configured to electrically conduct the low electrical potential line with one of the up to down terminal and the down to up terminal which has a lower electrical potential.
Abstract:
The present invention provides a liquid crystal driving circuit for providing power to the pixel units of a liquid crystal display device. The present invention further provides the liquid crystal display device, which comprises pixel units and the liquid crystal driving circuit.
Abstract:
A gate driver on array (GOA) circuit, a liquid crystal panel comprising the GOA circuit, and a display device including the liquid crystal panel are provided. The GOA circuit comprises a forward and backward scanning control module configured to control the GOA circuit to perform forward scan or backward scan according to a forward scanning signal or a backward scanning signal respectively, a first voltage stabilizing module configured to maintain a voltage level of a first node, and a second voltage stabilizing module electrically connecting to the forward and backward scanning control module, and configured to maintain a voltage level of an output signal of the forward and backward scanning control module.
Abstract:
A gate driver of array (GOA) circuit and a display device are disclosed. An n-th sub-circuit in the GOA circuit includes a control module, an output module, a pull-up supplement module, and a leakage switch. The pull-up supplement module includes a supplement switch and an auxiliary switch. The supplement switch is coupled to the auxiliary switch, the control module, and the output module. The auxiliary switch is coupled to the supplement switch, the control module, and the output module. The leakage switch is coupled to the control module, the output module, the supplement switch, and the auxiliary switch.
Abstract:
A manufacturing method of a display panel is provided and includes providing a substrate; and forming a buffer layer, a polysilicon layer, a gate electrode, an interlayer insulating layer, a first transparent electrode layer, a source electrode and drain electrode line, and a touch control line on the substrate in sequence. A masking process is omitted using a planarization layer as a photoresist layer of the interlayer insulating layer. One more masking process is omitted by forming the pixel electrode, the source electrode and drain electrode line and the touch control line in a same masking process.
Abstract:
A multi-domain vertical alignment display panel and a pixel structure are provided. The pixel structure includes three subpixels arranged in a row, wherein the three subpixels respectively consist of an upper alignment region and a lower alignment region. The upper alignment region and lower alignment region respectively include four subregions. Alignment directions of the upper and lower adjacent subregions as well as the left and right subregions are perpendicular to each other, and the alignment directions of any two adjacent subregions respectively located in the left and right adjacent subpixels are identical, so as to reduce dark lines between the left and right adjacent subpixels and increase light transmittance.