A display device includes: a substrate including a display region and a non-display region; a plurality of pixels provided in the display region, the plurality of pixels including first to third sub-pixels each having a light emitting region configured to light; a first light emitting element that is provided in each of the first and second sub-pixels and emits first color light, and a second light emitting element that is provided in the third sub-pixel and emits second color light; and a color conversion layer corresponding to each of the first and second sub-pixels, the color conversion layer converting the first color light into light of a set color for each corresponding sub-pixel.

Embodiments of the present disclosure provide an OLED substrate and a fabrication method thereof, and a display panel. The method for fabricating an OLED substrate includes: forming an auxiliary cathode in a display region on a base substrate; forming an organic material functional layer in the display region on the base substrate where the auxiliary cathode is formed; applying a voltage to the auxiliary cathode to deform the auxiliary cathode, such that the organic material functional layer is ruptured by the deformed auxiliary cathode to form a connection channel; and forming a cathode in the display region on the base substrate where the organic material functional layer is formed. The cathode is electrically connected to the auxiliary cathode at the connection channel.

A display device includes a display region and a non-display region. First lines are between the substrate and the first insulating layer in the non-display region. Second lines are on a first insulating layer in the non-display region and are alternately disposed with the first lines. A second insulating layer is over the second lines and has a surface unevenness formed by the first and second lines. Third lines are over the second insulating layer and intersect the first lines and the second line. First insulating patterns are on the second insulating layer and serve to planarize the surface unevenness. The first insulating patterns are between at least adjacent third lines in a plan view.

A display panel is provided. The display panel includes an array substrate and an anode layer disposed on the array substrate. The anode layer includes a first conductive layer and a second conductive layer located on the first conductive layer. A surface of the first conductive layer toward the second conductive layer is provided with a first grating structure. A light emitting layer is disposed on the second conductive layer. By disposing the first grating structure on the first conductive layer, surface plasmon effect and waveguide effect occurring in a dielectric layer near the anode are weakened.

A display panel and a manufacturing method thereof are provided. A driving circuit layer includes an auxiliary electrode and an undercut structure. An undercut space is defined on the undercut structure. The auxiliary electrode includes a connection portion. The connection portion extends along a peripheral direction of the undercut structure. The connection portion is exposed by the undercut space. A light-emitting layer and a second electrode are cut at where the undercut structure is. The second electrode is connected to the connection portion of the auxiliary electrode. An encapsulation layer extends into the undercut space and covers the second electrode.

A display device includes: a display unit including a plurality of light emitting areas, plurality of thin film transistors, and organic light emitting elements; an input sensing unit including a plurality of sensing electrodes and disposed on the display unit, wherein the plurality of sensing electrodes includes a plurality of openings; and an anti-reflection member. Each of the organic light emitting elements includes: a first electrode disposed above a first thin film transistor of the thin film transistors and connected to the first thin film transistor through a contact hole; a light emitting layer disposed on the first electrode and overlapping a first light emitting area of the light entitling areas; and a second electrode. Each of the light emitting areas is exposed by a corresponding opening of the plurality of openings, and the plurality of sensing electrodes overlaps with the contact holes.

The present disclosure relates to a display panel, a control method thereof, and a display device. The display panel includes a substrate and a plurality of pixel units. A plurality of pixel units is on the substrate; each pixel unit includes a sub-pixel unit, a control unit, and a protection unit. The control unit is electrically connected to the sub-pixel unit. After the sub-pixel unit is in the display state, the protection unit is configured to prevent the control unit from receiving an interference signal.

An organic light-emitting diode display is disclosed. In one aspect, the display includes a plurality of pixels formed in a plurality of intersection areas of a plurality of data lines and a plurality of scan lines. Each of the pixels includes a storage capacitor configured to store a data voltage, at least one target transistor having one end electrically connected to a current path of the storage capacitor, an organic light emitting layer, and a first electrode of an OLED formed over the organic light emitting layer. The first electrode includes a first electrode extension configured to block at least a portion of the target transistor from light.

Each of pixels includes: a transparent upper electrode covering at least a part of the first region and at least a part of the second region; a reflective lower electrode disposed in the second region; a light-emitting film disposed between the transparent upper electrode and the reflective lower electrode, the light-emitting film being configured to emit light in response to supplied electric current; a thin film transistor disposed lower than the reflective lower electrode in the second region, the thin film transistor having a channel made of a transparent oxide; and a transparent low-resistive film that is made of the transparent oxide and interconnects the power-source potential supply line and the transparent upper electrode, the transparent low-resistive film being separate from an oxide film that is made of the transparent oxide and includes the channel and having a resistance lower than a resistance of the channel.

A manufacturing method for an inkjet printing AMOLED display panel is disclosed. The method includes steps of: manufacturing a TFT backplane, and manufacturing an anode on the TFT backplane; manufacturing a spacer layer for isolating the anode from a pixel definition layer on the anode; manufacturing a pixel definition layer on the TFT backplane, and the pixel definition layer covers the spacer layer; patterning the pixel definition layer to form a notch on the pixel definition layer in order to expose the spacer layer; etching the spacer layer below the notch by an etching solution; and forming an ink layer on the anode by an inkjet printing method. The invention can improve the cleanliness of the anode surface in the AMOLED display panel, reduce the residue, and make the printed light-emitting layer easier to spread evenly, prevent the AMOLED display panel from displaying abnormality.