Abstract:
An OLED panel is provided. The OLED panel may include multiple matrix-arranged TFTs, an anode layer, an organic light emitting layer, a cathode layer, and/or any other components. The anode layer can have multiple anodes, formed on one side of the TFTs. The organic light emitting layer can be formed on one side of the anode layer away from the TFTs. The cathode layer can have multiple cathodes and be formed on one side of the organic light emitting layer away from the anode layer. The cathodes can pass through the organic light emitting layer and be electrically connected to the corresponding TFTs to form pixel electrodes. A time-division drive module can be electrically connected to the anodes, which can be configured to multiplex time-divisionally to alternately form common electrodes or touch electrodes.
Abstract:
A driving method for a touch screen is disclosed. The touch screen includes a display panel, a touch panel, and a control circuit. Each of a plurality of display cycles includes at least two first time sequences and at least two second time sequences. The method includes, during each of the first time sequences, generating a plurality of scanning control signals for a display scanning line driving circuit, and, in response to the scanning control signals, delivering a plurality of scanning signals to different display scanning lines. The method also includes, during each of the second time sequences, generating a plurality of scanning control signals for the touch scanning line driving circuit, and, in response to the scanning control signals for the touch scanning line driving circuit, sequentially delivering scanning signals to all of the touch scanning lines of the touch panel.
Abstract:
An OLED panel is provided. The OLED panel may include multiple matrix-arranged TFTs, an anode layer, an organic light emitting layer, a cathode layer, and/or any other components. The anode layer can have multiple anodes, formed on one side of the TFTs. The organic light emitting layer can be formed on one side of the anode layer away from the TFTs. The cathode layer can have multiple cathodes and be formed on one side of the organic light emitting layer away from the anode layer. The cathodes can pass through the organic light emitting layer and be electrically connected to the corresponding TFTs to form pixel electrodes. A time-division drive module can be electrically connected to the anodes, which can be configured to multiplex time-divisionally to alternately form common electrodes or touch electrodes.
Abstract:
A color filter substrate is disclosed. The color filter substrate includes a glass substrate, and an RGB color filter layer. The RGB color filter layer includes a plurality of optical filter columns, and each optical filter column includes a plurality of optical filter units in two colors. In addition, adjacent optical filter columns form an optical filter group, optical filter units of one of the colors in each optical filter group are arranged in a zigzag pattern, optical filter units arranged in the zigzag pattern are of different colors in adjacent optical filter groups, and the optical filter units are rectangular.
Abstract:
A TFT array substrate is disclosed. The TFT array substrate includes an array of TFT switches including scan lines, data lines intersecting the scan lines, and TFT switches. Each of the TFT switches includes a gate electrode electrically connected to a scan line, a source electrode electrically connected to a data line, and a drain electrode. The TFT array substrate also includes an array of pixel electrodes, each of the pixel electrodes is electrically connected to the drain electrode of a corresponding TFT switch. At least one first pixel electrode is disposed in the array of the pixel electrodes, and each first pixel electrode has an overlapping portion overlapped by at least one of the scan lines and the data lines. In addition, in the overlapping portion, a shielding electrode layer is located between the first pixel electrode and at least one of the scan line and the data line overlapping the first pixel electrode.
Abstract:
A display panel and a display device are provided. The display panel includes a substrate, multiple data line groups which are arranged on the substrate sequentially and adjacently, and multiple gate line groups which are arranged on the substrate sequentially and adjacently. The display panel further includes multiple pixel electrode array units which are arranged in an array on the substrate. The pixel electrodes in the pixel electrode array unit are electrically connected with the data lines and the gate lines via switch elements. Data driving signals received by any two adjacent pixel electrodes in a same column have opposite polarities. The pixel electrode array unit includes a first pixel electrode, a second pixel electrode, a third pixel electrode, and a fourth pixel electrode. Data driving signals received by any two adjacent pixel electrodes of a same type in the same row have opposite polarities.
Abstract:
A liquid crystal panel includes a TFT (Thin Film Transistor) substrate, a CF (Color Filter) substrate and liquid crystal layer arranged between the TFT substrate and the CF substrate. The liquid crystal panel includes a display area and a non-display area, the non-display area surrounds the display area, a sealing material coating area is arranged in the non-display area, and a sealing material is arranged in the sealing material coating area to seal the liquid crystal layer between the TFT substrate and the CF substrate. A first black matrix is arranged inside the CF substrate in the non-display area, devices including a metal layer are arranged inside the TFT substrate in the non-display area, and voids are arranged in the first black matrix of the CF substrate corresponding to at least a part of the devices including the metal layer.