Abstract:
A flexible printed circuit board (PCB) may have one or more coin cell batteries mounted thereto such that the flexibility of the flexible PCB is maintained. The flexible PCB has one or more battery contact pads fabricated thereon. Each battery contact pad includes a pattern of metalized vias each extending from a top surface to a bottom surface of the flexible PCB. A coin cell battery may be positioned over or under the battery contact pad. Conductive light curable epoxy is applied to and in each metalized via to contact and adhere to the coin cell battery to form a conductive path from the battery through the battery contact pad to printed conductors on the flexible PCB. Methods of mounting one or more coin cell batteries to a flexible PCB are also provided, as are other aspects.
Abstract:
In an embodiment, a printing method for forming a conductive line on a plastic substrate for use in an automobile, comprises one or both of inkjet printing and screen printing the conductive line on the plastic substrate while the plastic substrate is fixed in a fixture of an automatic printing machine; the conductive mixture comprises a conductive paste; a solvent; and an adhesion agent; and wherein the conductive line is a busbar, a grid line, or an antenna line in the automobile.
Abstract:
Described herein are capacitive devices and methods for producing same using printing methods such as flexography, gravure, offset, lithography, etc. The capacitive devices are formed from printing conductive inks, non-conductive inks, masking ink layers, graphic artwork layers, and overprint layers on a substrate. Interaction between a conductive ink layer of the capacitive device with a touch screen device of a computer, tablet, smart phone, etc. causes a capacitive effect that allows information coded in capacitive device to be read, leading to an activity such as the download of content to the device having the touch screen.
Abstract:
An electronic circuit board manufacturing method according to the present disclosure is a method of manufacturing an electronic circuit board including a substrate and an electronic circuit having a predetermined pattern, the electronic circuit being fixed on the substrate and being made from a nanoink composition containing metal particles. The method includes the steps of: causing a printing plate to hold a nanoink composition containing metal particles, the printing plate including an ink holding part formed on a surface thereof and having a predetermined pattern; bringing a surface of the substrate into intimate contact with the printing plate to transfer the nanoink composition held on the ink holding part onto the substrate (workpiece W); and drying the transferred nanoink composition in an environment of 40°C or below in the atmosphere to fix the nanoink composition after the transfer step, thereby forming an electronic circuit having a predetermined pattern. This method is capable of forming a layer made from a uniform nanoink composition rapidly and efficiently at ordinary temperatures and under atmospheric pressure.
Abstract:
[Problem] A coating resin composition having all of respective beneficial features of excellent state in chemical resistance, under high temperature, against human skin protection creams containing a mixture of alkyl esters of benzoic acid, as represented by Neutrogena Cream (registered trademark), excellent state in gas barrier property against metal-corrosive gases as represented by sulfur-containing gases, and excellent state in flexibility that accommodates three-dimensional shape forming processing is demanded. [Solution Means] An ultraviolet curing type coating resin composition, comprising an ultraviolet curing type coating resin composition containing an unsaturated-group-containing acrylic resin, with a weight average molecular weight of 5000 to 70000, a number of (meth) acrylate functional groups per molecule of 5 to 40, a hydroxyl value of 2 to 200mgKOH/g, and with a glass transition temperature of 20 to 90°C, a volatile organic solvent, and a photopolymerization initiator.
Abstract:
An electronic circuit board manufacturing method according to the present disclosure is a method of manufacturing an electronic circuit board including a substrate and an electronic circuit having a predetermined pattern, the electronic circuit being fixed on the substrate and being made from a nanoink composition containing metal particles. The method includes the steps of: causing a printing plate to hold a nanoink composition containing metal particles, the printing plate including an ink holding part formed on a surface thereof and having a predetermined pattern; bringing a surface of the substrate into intimate contact with the printing plate to transfer the nanoink composition held on the ink holding part onto the substrate (workpiece W); and drying the transferred nanoink composition in an environment of 40°C or below in the atmosphere to fix the nanoink composition after the transfer step, thereby forming an electronic circuit having a predetermined pattern. This method is capable of forming a layer made from a uniform nanoink composition rapidly and efficiently at ordinary temperatures and under atmospheric pressure.
Title translation:KUPFERMETALLFILM,VERFAHREN ZU SEINER HERSTELLUNG,KUPFERMETALLSTRUKTUR,LEITFÄHIGEVERKABELUNGSLEITUNG MIT DER KUPFERMETALLSTRUKTUR,KUPFERMETALLPUFFER,WÄRMELEITENDERPFAD,BINDEMATERIAL UNDFLÜSSIGKEITSZUSAMMENSETZUNG
Abstract:
Disclosed are: a copper metal film which has good adhesion to a substrate, low volume resistivity, and good deep-part metal properties; and a method for producing a copper metal film, wherein the copper metal film can be produced by reducing a substrate to a deep part thereof without damaging the substrate. Specifically disclosed is a copper metal film obtained by treating a copper-based particle deposition layer containing both copper oxides and a metallic transition metal or alloy, or a transition metal complex containing a metal element, with gaseous formic acid and/or formaldehyde heated to 120°C or higher. The copper oxide is preferably copper (I) oxide and/or copper (II) oxide. The transition metal, alloy or metal complex are preferably a metal selected from the group consisting of Cu, Pd, Pt, Ni, Ag, Au and Rh, an alloy containing the metal, or a complex containing the metal element, respectively.
Abstract:
A wiring body (4) includes an adhesive layer (5) and a mesh-like electrode layer (6) having a shape of a mesh formed by fine wires (64) intersecting each other, and formed on the adhesive layer (5). The mesh-like electrode layer (6) includes an intersection region (T1) intersecting fine wires (64) each other, and a non-intersection region (T2) corresponding to a region except for the intersection region (T1), and a depression (65) recessed toward the adhesive layer (5) is formed in the intersection region (T2).