Techniques and devices are provided for attaching a die to a metal manifold. A metal-containing ink is used to deposit a metal trace on the die and thereby to form a gasket, after which the die is compressed against the manifold to form a sealed connection between the two.

A printing device includes a base, a transfer roller, a transfer portion and at least one image collector. The transfer roller includes a rotating shaft and a cylinder body. The transfer portion is disposed on an outer circumferential surface of the cylinder body. The base is configured to allow a printing plate and a substrate to be transferred to be provided thereon, and drive the printing plate or the substrate to be transferred to move, so that the printing plate or the substrate to be transferred comes in contact with the transfer portion disposed on the cylinder body, and moves synchronously with the cylinder body. The transfer portion is configured to allow a transfer pattern to be formed thereon. The image collector is disposed on the cylinder body or the base, and is configured to collect a position of the transfer pattern transferred onto the substrate to be transferred.

The present disclosure relates to a method of manufacturing an Organic Light-Emitting Diode (OLED) display substrate and the manufactured OLED display substrate. The method comprises: forming an auxiliary electrode and an insulating layer sequentially on a base substrate; forming at least one via in the insulating layer, the via exposing at least a portion of the auxiliary electrode; forming an organic light-emitting layer on the insulating layer; injecting a conductive liquid into the via; curing the conductive liquid and electrically connecting the cured conductive liquid to the auxiliary electrode; and forming a first electrode layer on the organic light-emitting layer, and electrically connecting the first electrode layer to the auxiliary electrode through the cured conductive liquid in the via.

The present disclosure provides a touch panel and a method for fabricating same, in which patterned touch layers are formed by coating and curing a transparent conductive solution. This can reduce an etching process, thereby preventing an encapsulation layer from being damaged. Furthermore, the formed touch layers can be disposed at any position in a display area without affecting light-emitting effects of an organic light-emitting diode display panel and can greatly improve flexibility of the organic light-emitting diode display panel.

The present invention relates to a method for forming an organic element of an electronic device having at least two different pixel types including a first pixel type (pixel A) and a second pixel type (pixel B), —wherein at least one layer of pixel A is deposited by applying an ink A containing at least one organic functional material A and at least one solvent A by a printing process, —wherein at least one layer of pixel B is deposited by applying an ink B containing at least one organic functional material B and at least one solvent B by a printing process, —wherein at least one organic functional material A and at least one organic functional material B are different, and —wherein at least one solvent A and at least one solvent B are different, characterized in that both inks, ink A and ink B, in addition contain at least one common solvent S, and characterized in that the boiling point of solvent A and the boiling point of solvent B is at least 10° C. lower than the boiling point of the common solvent S.

Provided are a nanostructure network and a method of fabricating the same. The nanostructure network includes nanostructures having a poly-crystalline structure formed by self-assembly of the nanostructures. The method includes preparing a nanostructure solution in which nanostructures are dispersed in a first solvent, forming a nanostructure ink by adding the nanostructure solution into a second solvent having a viscosity higher than that of the first solvent, coating a surface of a substrate with the nanostructure ink, and forming a nanostructure network by evaporating the first solvent and the second solvent included in the nanostructure ink coated on the substrate.

Techniques and devices are provided for attaching a die to a metal manifold. A metal-containing ink is used to deposit a metal trace on the die and thereby to form a gasket, after which the die is compressed against the manifold to form a sealed connection between the two.

A method of manufacturing a paste according to various embodiments of the present disclosure for resolving the above-described problems is disclosed. The method of manufacturing a paste may include an operation of adding a metal conductor and a multi-walled carbon nanotube (MWCNT) to chloroform (CHCl.sub.3) to produce a first mixture, an operation of adding polydimethylsiloxane (PDMS) to the first mixture to produce a second mixture, an operation of evaporating the chloroform in the second mixture to acquire a third mixture, and an operation of adding an additional additive to the third mixture to produce a paste.

Embodiments of the present disclosure provide a method of manufacturing a display substrate. The method includes: forming a first electrode layer on a substrate, the first electrode layer including a plurality of first electrodes arranged in an array; performing a surface treatment on the plurality of first electrodes, such that an affinity of a surface of each of the plurality of first electrodes gradually increases from a central portion of the surface to a peripheral portion of the surface around the central portion, or the affinity of the central portion of the surface is less than the affinity of the peripheral portion of the surface; and forming a light emitting functional layer on the surfaces of the plurality of first electrodes subjected to the surface treatment. Embodiments of the present disclosure further provide a display substrate, a display panel, and a mask.

The present disclosure provides a conductive film, an organic electroluminescence device, a display device and a method. The conductive film includes a matrix and conductive metal nano-ions distributed in the matrix the matrix is selected from at least one of an organic network polymer, an organic porous polymer, and an inorganic porous material.