Abstract:
The present invention includes the steps of applying a liquid deposition material on a display surface of a display panel through a metal mask which is in close contact with the display surface of the display panel, while heating the metal mask; and forming thin film patterns by heating and baking the applied liquid deposition material.
Abstract:
A method produces a conductive paste comprising 15-20% by weight of PDMS and 80-85% by weight of metallic micro-nano particles, wherein the conductive paste is obtained by repeated addition of singular doses of PDMS to a heptane diluted PDMS low viscosity liquid containing the metallic micro-nano particles, wherein the heptane fraction is allowed to evaporate after addition of each of the singular doses of PDMS. A method forms a conductive path on a support layer, wherein the conductive path is encapsulated by an encapsulation layer comprising at least one via through which at least one portion of the conductive path is exposed, the method comprising filling the at least one via with the conductive paste.
Abstract:
A method of and device for forming vias on an electronic board (such as a PCB board) comprises forming one or more holes on the electronic board, placing a nanomaterial inside the one or more holes, and forming one or more filled holes on the electronic board. The nanomaterial can be nanocopper, which can be either push/pull into the holes on the electronic board or a combination of push and pull. The push/pull can be performed by using a mechanical device or by a person. A capping layer can be on both side of the via. The vias formed by using the nanomaterials provides a high efficient vertical heat transferring path from one side of the electronic board to the other side of the electronic board.
Abstract:
An electronic component module formed with the use of a copper particle paste which can ensure that even the inner part of a joint material is sintered, where copper particles are excellent in oxidation resistance, and a joint part is provided with high joint reliability; and a method for manufacturing the module.
Abstract:
A transparent electrode includes: a substrate; an electrically conductive layer disposed on the substrate and including a plurality of nano-sized conductors; and an organic/inorganic composite layer directly disposed on the electrically conductive layer and including a cross-linked polymer and nano-sized inorganic oxide particles, wherein the nano-sized inorganic oxide particles are included in an amount of greater than or equal to about 1 part by weight and less than about 35 parts by weight, relative to 100 parts by weight of the cross-linked polymer. Also an electronic device including the same.
Abstract:
The invention relates to conductive inks obtained by combining AQCs and metal nanoparticles. Atomic quantum clusters (AQCs), which melt at temperatures of less than 150° C., are used as low-temperature “flux” for the formulation of conductive inks. The combination of AQCs with bimodal and trimodal mixtures of nanoparticles of various sizes guarantees the elimination of free volumes in the final sintering of the nanoparticles in order to achieve electronic structures with very low resistivity (close to that of the bulk material) with low-temperature thermal treatments (
Abstract:
A method for forming a metal pattern on a substrate having at least one metal component is provided. By performing the surface passivation treatment on the at least metal component, the surface of the at least metal component becomes an anti-plating surface via an anti-plating coating. Hence, the metal pattern can be selectively formed in the following electroless plating processes.
Abstract:
There is provided a method for forming an electrically conductive ultrafine pattern which has an excellent pattern cross-sectional shape is provided by a composite technique including a printing process and a plating process, and furthermore, by imparting excellent adhesion to each interface of a laminate including a plating core pattern, an electrically conductive ultrafine pattern which can be preferably used as a highly accurate electric circuit and a method for manufacturing the same are also provided. The method includes (1) a step of applying a resin composition to form a receiving layer on a substrate; (2) a step of printing an ink containing plating core particles by a reverse offset printing method to form a plating core pattern on the receiving layer; and (3) a step of depositing a metal on the plating core pattern formed in the step (2) by an electrolytic plating method.
Abstract:
A method for manufacturing includes coating a substrate (22) with a matrix (28) containing a material to be patterned on the substrate. A pattern (42) is fixed in the matrix by directing an energy beam to impinge on the coated substrate so as to fix the pattern in the matrix without fully sintering the pattern. The matrix remaining on the substrate outside the fixed pattern is removed, and after removing the matrix, the material in the pattern is sintered.
Abstract:
An aerosol deposition system that uses a liquid ink, fed directly to an ultrasonic source at or near a nozzle to form an aerosolized ink, which may be transported via a carrier gas to a sheath gas insertion location is presented. The sheath gas may direct or focus the atomized ink through a nozzle. Alternatively, a deposition head may be adapted to the ultrasonic source so that aerosolization of the ink occurs inside the deposition head, where the sheath gas flows around the ultrasonic source, transporting the aerosolized ink through a nozzle and toward a substrate ˜2 mm distant. The substrate may be translated to form features of controlled shape such as lines with widths from ≦30 μm to 100 μm. Variations of this system may yield systems where a carrier gas is unnecessary, and all aerosolized ink is transported via the sheath gas.