Abstract:
A system and method for manufacturing a display device having an electrically connected front plate and back plate are disclosed. In one embodiment, the method comprises printing conductive raised contours onto a non-conductive back plate, aligning the back plate with a non-conductive front plate such that the raised contours align with conductive routings on the front plate to electrically connect the raised contours and the routings, and sealing the back plate and the front plate.
Abstract:
A process for the production of a device having a surface microstructure of wells or channels, comprises one or more steps of screen-printing the microstructure as a curable material onto a plastics substrate, and curing the material. Such a device may also be obtained by applying onto a substrate a material that is polymerisable or depolymerisable by irradiation, applying a negative or positive photoresist respectively, irradiating the structure and removing the unpolymerised or depolymerised material.
Abstract:
A process for the production of a device having a surface microstructure of wells or channels, comprises one or more steps of screen-printing the microstructure as a curable material onto a plastics substrate, and curing the material. Such a device may also be obtained by applying onto a substrate a material that is polymerisable or depolymerisable by irradiation, applying a negative or positive photoresist respectively, irradiating the structure and removing the unpolymerised or depolymerised material.
Abstract:
The present invention relates to a method for manufacturing modular microfluidic paper chip comprises steps of: (a) a step of printing electrode patterns onto a substrate using conductive ink and inkjet printing; (b) a step of cutting the printed electrode patterns; and (c) a step of assembling the cut electrode patterns to manufacture modular microfluidic pattern chips. Unlike the conventional method for manufacturing printed circuit substrates using a patterning agent or device, the method of the present invention utilizes a simple printing process only using an inkjet printer, and thus patterning can be simplified and various types of chips can be manufactured depending on the assembly type of electrode patterns. Accordingly, inexpensive, economical, and highly utilizable microfluidic chips can be provided using the method of the present invention. [Reference numerals] (AA) Paper;(BB) Stop parylene
Abstract:
본 발명은 접점의 접촉면이 평활한 스위치나 릴레이를 제공하는 것으로서, 해결수단으로서는, 고정 접점부(33)의 측면과 가동 접점부(34)의 측면이 대향한다. 고정 접점부(33)는, 고정 접점 기판(41)의 위에 절연층(43)과 하지층(44)이 적층되고, 그 위에 전해 도금 등에 의해 도전층(45)이 형성된다. 도전층(45)의 가동 접점부(34)와 대향하는 측면이 고정 접점(46)(접촉면)이 된다. 가동 접점부(34)는, 가동 접점 기판(51)의 위에 절연층(53)과 하지층(54)이 적층되고, 그 위에 전해 도금 등에 의해 가동 접점(56)이 형성된다. 도전층(55)의 고정 접점부(33)와 대향하는 측면이 가동 접점(56)(접촉면)이 된다. 이 고정 접점(46) 및 가동 접점(56)은, 도전층(45) 및 도전층(55)을 전해 도금 등에 의해 성장시키는 공정에서, 몰드부의 측면에 접하여 있던 면이다.
Abstract:
A method of manufacturing an electrical wiring and a storage element is provided to prevent adjacent layers from being damaged in a firing process by performing the firing process at a moderate temperature. A droplet spraying process is performed to spray a composition with a conductive material on a desired position on a substrate(101). A droplet(102) contains the nano-sized conductive material, which is dispersed in a resolvent. A nano particle, which is made of the conductive material, and an organic material, which coats the nano particle, remain on the substrate. The resolvent remains on the organic material. A cross-section of an electrical wiring, which is formed on the substrate, has a ring stain-like shape.