Provided is a display apparatus reduced in size and weight by reducing a size of a lens member. A head-mounted display apparatus includes a display panel emitting light, a lens member directing light from the display panel forwards, a light guide guiding light transmitting through the lens member to a user's eyes, a reflector and a transflective reflector changing a path of light moving along the light guide, and an adhesive layer disposed between the display panel and the lens member and adhering the display panel and the lens member.

A display device includes a substrate and a pixel disposed on the substrate. The pixel includes a first transistor, a second transistor electrically connected to the first transistor, a third transistor electrically connected to the first transistor, and a light-emitting diode element electrically connected to at least one of the first transistor and the third transistor. The first transistor includes a first semiconductor member and a first gate electrode. The first semiconductor member includes an oxide semiconductor material. The first gate electrode is disposed between the first semiconductor member and the substrate. The second transistor includes a second semiconductor member and a second gate electrode. The second semiconductor member includes the oxide semiconductor material. The second semiconductor member is disposed between the second gate electrode and the substrate. The third transistor includes a third semiconductor member including silicon.

The present disclosure provides a method of fabricating an organic light-emitting diode (OLED) display panel and an organic light-emitting diode (OLED) display panel. The OLED display panel includes a substrate; a driving circuit layer formed on the substrate; a pixel defining layer; and a light emitting functional layer, which are stacked. Protrusions are provided on a surface of the pixel defining layer away from the driving circuit layer in at least one of a plurality of pixel defining regions, and the light emitting functional layer is formed on the pixel defining layer and covers the sub-pixel regions. By forming the protrusions, a lateral transmission path of charges between adjacent sub-pixels is increased, resulting in a reduction in light leakage.

Described is an electroluminescent device including an array substrate having a thin-film transistor formed thereon, an organic insulating layer formed on the array substrate having the thin-film transistor formed thereon, barriers disposed on the organic insulating layer, an anode formed on the organic insulating layer between the barriers to thus be electrically connected to the thin-film transistor and configured to cover at least a portion of the barriers, a light-emitting layer formed on the anode, and a cathode formed on the light-emitting layer, thus exhibiting superior emission efficiency and a wide viewing angle. A method of making or manufacturing the electroluminescent device is also described.

The present disclosure discloses a display panel and a display device. The display device includes a first display area and a second display area, where the first display area includes a plurality of first sub-pixel units, and each of the first sub-pixel units includes a first light emitting device and a driving circuit for driving the first light emitting device to emit light; where the second display area includes a plurality of second sub-pixel units and a plurality of first voltage signal lines, each of the second sub-pixel units includes a second light emitting device, and the first voltage signal lines are directly and electrically connected to anodes of the second light emitting devices.

A conductive member has a wiring portion, and the wiring portion has a mesh-shaped wiring pattern in which line wirings each being composed of a plurality of thin metal wires arranged in parallel in one direction are overlapped in two or more directions. The line wiring in at least one direction is a straight line wiring in which a plurality of thin metal wires are straight lines. The straight line wiring in at least one direction has a non-equal pitch wiring pattern in which repetitive pitches of a predetermined number of the thin metal wires are equal and at least two pitches of the respective pitches of the predetermined number of the thin metal wires are different. The conductive member has a wiring pattern capable of reducing moiré compared to an equal pitch wiring pattern, particularly a wiring pattern capable of reducing both regular moiré and irregular moiré (noise). A conductive film, a display device, and a touch panel each include the conductive member.

The flexible light-emitting panel, the manufacturing method thereof and the display device, the flexible light-emitting panel comprises: a backplate; the adhesive layer comprises a first sub-adhesive layer disposed on the backplate and a plurality of protrusions from the first sub-adhesive layer away from the backplate a second sub-adhesive layer; the flexible layer is disposed on the first sub-adhesive layer, and the flexible layer comprises a plurality of spaced sub-flexible layers, the second sub-adhesive layer is located at spacings; and an array is sequentially stacked on each sub-flexible layer The substrate, the light-emitting component and the encapsulation layer; the cover plate is disposed on the encapsulation layer and the second sub-adhesive layer.

The present application provides an array substrate and a manufacturing method of the same, the array substrate includes a display region, the display region includes a thin film transistor structure layer including a gate electrode layer and a source drain electrode layer, wherein the gate electrode layer and the source drain electrode layer are made of an alloy material including one or a group selected from Al, Ge, Nd, Ta, Zr, Ni, or La.

The present disclosure provides a display substrate, a manufacturing method thereof, and a display device. The display substrate includes: a backplane; a transistor layer on a side of the backplane; a first planarization layer on a side of the transistor layer away from the backplane; an auxiliary cathode layer on a side of the first planarization layer away from the transistor layer; a second planarization layer on a side of the auxiliary cathode layer away from the first planarization layer; and a light-emitting element layer on a side of the second planarization layer away from the auxiliary cathode layer. The light-emitting element layer includes a primary cathode layer electrically connected to the auxiliary cathode layer.

A display panel and a manufacturing method thereof of the present disclosure provide a substrate including a non-display area, a display area disposed around the non-display area, a light-converging structure disposed on the substrate of the non-display area, and a functional layer disposed on the substrate and provided with a through-hole corresponding to the non-display area, wherein the through-hole penetrates the functional layer, thereby reducing the loss of light transmitted to the camera, greatly increasing an amount of light that enters the camera, and improving the image quality of the camera.