Abstract:
A substrate structure is provided. The substrate structure includes a substrate and a patterned wiring layer formed on the substrate. The patterned wiring layer includes a plurality of conductive traces. An isolation layer covers the patterned wiring layer and has an opening to expose a portion of at least one of the conductive traces therefrom. A plurality of conductive coatings covers the exposed portions of the conductive traces. The present invention further provides a semiconductor package with the above substrate structure.
Abstract:
A display device comprises a metallic wiring formed on an insulating substrate, an inorganic insulating film formed on the metallic wiring, an organic resin film formed on the inorganic insulating film, a transparent conductive film formed in a portion on the metallic wiring where the inorganic insulating film and the organic resin film are removed, a connection terminal formed in a region for mounting a driving IC external to the display region on the insulating substrate, and a bump of the driving IC connected to the connection terminal by an anisotropic conductive film in order to supply a signal to the display region. The region for mounting a driving IC includes a region where the inorganic insulating film and the organic resin film are formed on the metallic wiring and a region where the inorganic insulating film and the organic resin film are removed from the metallic wiring.
Abstract:
The thin film-laminated polyimide film contains a substrate film and a thin film layer formed at least on one surface of the substrate film. The substrate film is made of a polyimide film showing a degree of curl after a heat treatment at 300° C. of not more than 10%. Use of this thin film-laminated polyimide film as a substrate of electronic parts such as solar battery, capacitor and the like exposed to high temperatures prevents easy development of warpage and distortion during production, and can improve quality and yield of electronic parts.
Abstract:
Alignment precision enhancement of electronic component process on flexible substrate device and method thereof the same is proposed. The process step of a flexible substrate is put on a substrate holder, wherein the flexible substrate is fixed by a polymer tape. A plural of alignment marks is making for lithography process. An unstressed cut is separated the flexible substrate and substrate holder when the electronic component is made.
Abstract:
A method of forming metallic connector patterns for solar cells, whereby an embosser having raised features shaped in the form of a metallic connector pattern is used to attach a portion of a metallic foil to a transparent conductive layer formed on a top transparent surface of a solar cell structure. The raised surfaces of the embosser press the metallic foil portion against the transparent conductive layer. Heat and pressure directed to the metallic foil portion attach the metallic foil portion to the underlying transparent conductive layer, and then the rest of the metallic foil, which is not attached to the transparent conductive layer, is removed.
Abstract:
An array of light emitting diodes coupled between a substrate and a transparent electrode include a pair of equipotential bus bars supplying electrical current simultaneously to at least two light emitting diodes, each located in its own area of transparent conductive material. In accordance with another aspect of the invention, a linear array of light emitting diodes has an electrode that includes a conductive island for each light emitting diode and a bus bar interconnecting and surrounding the conductive islands.
Abstract:
A plane structure of light-emitting diode (LED) lighting apparatus is provided, it includes a transparent flexible tape with a first transparent pattern and a second transparent pattern, wherein the first transparent pattern is insulated from the second transparent pattern. A plurality of light-emitting diodes is electrically connected with the first transparent pattern. The LED lighting apparatus can also form the first transparent pattern and the second transparent pattern on two sides of the transparent flexible tape, or, furthermore, to form the first transparent pattern and the second transparent pattern stack to generate a multi-storey LED lighting apparatus. Such a plane of emitting diode is applied to various display, furniture decoration and lighting.
Abstract:
The present invention relates to a wiring member including: a copper foil layer having a smooth surface with a surface roughness Rz of 2 μm or less; a noise suppressing layer containing a metallic material or a conductive ceramic and having a thickness of 5 to 200 nm; and an insulating resin layer provided between the smooth surface of the copper foil layer and the noise suppressing layer, and also relates to a printed wiring board equipped with the wiring member. Moreover, the present invention relates to a noise suppressing structure including: a first conductive layer; a second conductive layer; a noise suppressing layer provided between the first conductive layer and the second conductive layer, the noise suppressing layer being to be electromagnetically-coupled with the first conductive layer, the noise suppressing layer comprising a metallic material or a conductive ceramic, and the noise suppressing layer having a thickness of 5 to 300 nm; a first insulating layer provided between the first conductive layer and the noise suppressing layer; and a second insulating layer provided between the second conductive layer and the noise suppressing layer; wherein the noise suppressing structure has: a region (I) in which the noise suppressing layer and the first conductive layer face each other; and a region (II) in which the noise suppressing layer and the first conductive layer do not face each other but the noise suppressing layer and the second conductive layer face each other, the regions (I) and (II) neighboring each other.
Abstract:
In a circuit board according to the present invention, on a substrate, in at least a portion of a phase change layer including a phase change material that is capable of changing alternately between an electrically insulating state and an electrically conductive state, a conductive path is formed that has been put into an electrically conductive state by a phase change in the phase change layer, wherein the phase change material includes a chalcogenide semiconductor, changes between the electrically insulating state and the electrically conductive state by irradiation of laser light, goes into the electrically conductive state in a crystalline phase, and goes into the electrically insulating state in an amorphous phase. In this way, a conductive path is formed by irradiating laser light onto a phase change layer using phase change in a phase change layer formed from a phase change material that is capable of changing alternately between an electrically insulating state and an electrically conductive state, and therefore very small-dimension minute vias and conductors can be formed. Furthermore, subsequent repair, rework, or trimming also is easy.
Abstract:
An object of the invention is to provide a terminal structure which can reduce a connection resistance and prevent corrosion and to provide an electronic apparatus based on the terminal structure. An electronic apparatus comprising a transparent conductive layer (10) supported by a substrate (8) and a metal layer (20) of a material having a resistivity lower than that of the transparent conductive layer (10), the metal layer (20) being extended on the transparent conductive layer (10), the transparent conductive layer (10) having an oxidation resistivity higher than that of the metal layer (20) and forming a terminal (10T) for connecting to peripheral circuitry (50). The metal layer (20) extends on an extending portion (10L) of the transparent conductive layer (10) outside the terminal (10T) of the transparent conductive layer (10), and/or on the periphery of or in the vicinity of a coupling area (11) for making the transparent conductive layer (10) to be exposed to the exterior within an area of the terminal (10T) of the transparent conductive layer (10). There is provided an electrically insulating layer (30) which covers at least a part of the terminal (10T) of the transparent conductive layer (10) and the whole of the metal layer (20) and which extends on the area other than the coupling area (11) within the area of the terminal (10T) of the transparent conductive layer (10).