Abstract:
The present invention relates to an array substrate assembly and a display device. The array substrate assembly comprises a substrate; a first metal line formed at one side of the substrate; an insulating layer formed on the first metal line; a second metal line formed on the insulating layer, wherein one end of the second metal line connected with a driving circuit is formed with a second terminal, wherein in a thickness direction of the substrate, a distance between a surface of the second terminal away from the one side of the substrate and the substrate is less than a distance between a surface of the second metal line away from the one side of the substrate and the substrate. The display device includes the array substrate assembly. With the solution of the present invention, when the array substrate assembly is connected to IC or COF, deformation difference between a conducting gold ball at a gate line terminal and a conducting gold ball at a date line is small, thus impedances at the two terminals are close to each other, and therefore image quality of the display device is improved.
Abstract:
A package structure, including: a circuit board, including a first surface and a second surface opposite to the first surface, where the circuit board possesses multiple carrying units arranged in a matrix form, each of which possesses multiple input pads on the first surface and multiple output pads on the second surface, where the input pads and the output pads are interconnected electrically; a pre-packaged panel, including a first encapsulation layer, which possesses multiple integrating units arranged in a matrix form, wherein each of the integrating units possesses at least one semiconductor chip with multiple first pads, where first metal bumps are disposed on the first pads; wherein the pre-packaged panel is mounted on the first surface; a filling layer, filling a space between the first surface and the pre-packaged panel; and second metal bumps, disposed on the output pads. Accordingly, the package structure improves package efficiency.
Abstract:
A light emitting device includes a light emitting element, a light-reflecting substrate, and an electrically conductive member. The light emitting element includes a first surface and an electrode provided on the first surface. The light-reflecting substrate has a first main surface facing the first surface of the light emitting element and has a second main surface opposite to the first main surface. The light-reflecting substrate defines a hole at a position corresponding to the electrode. The hole penetrates through the light-reflecting substrate from the first main surface to the second main surface. The electrically conductive member includes a substantially spherical core arranged in the hole and bonded with the electrode, and a coating portion provided in a space between the substantially spherical core and a lateral surface of the hole.
Abstract:
The present invention discloses an electromagnetic wave shielding film, comprising at least one electromagnetic shielding layer. A printed circuit board comprising the shielding film, is formed by tightly connecting the electromagnetic wave shielding film with the printed circuit board in the direction of thickness, wherein a ground layer is disposed on said printed circuit board. A method for producing the circuit board, including the following steps: (1) hot-pressing and curing the electromagnetic shielding film with the circuit board in the direction of thickness; (2) piercing the adhesive film layer by a rough surface of the electromagnetic shielding layer, to achieve grounding. Or, including the following steps: (1) hot-pressing and curing the electromagnetic shielding film with the circuit board in the direction of thickness; (2) piercing the shielding film by an electrically conductive substance, to achieve grounding. Or, including the following steps: (1) hot-pressing and curing the electromagnetic shielding film with the circuit board in the direction of thickness; (2) forming through holes or blind holes in the circuit board; (3) metallizing the holes, to achieve grounding. The adhesive film layer of the shielding film of the present invention contains no conductive particle, so that the cost and the insertion loss are reduced, and the development demand of high-speed and high-frequency of the electronic products is met.
Abstract:
An electronic component built-in substrate, includes a lower wiring substrate, an electronic component mounted on the lower wiring substrate, an intermediate wiring substrate including an opening portion in which the electronic component is mounted, and arranged in a periphery of the electronic component, and connected to the lower wiring substrate via a first conductive ball, an upper wiring substrate arranged over the electronic component and the intermediate wiring substrate, and connected to the intermediate wiring substrate via a second conductive ball, and a resin filled into respective areas between the lower wiring substrate, the intermediate wiring substrate, and the upper wiring substrate, and sealing the electronic component, wherein the first conductive ball and the second conductive ball are arranged in displaced positions mutually.
Abstract:
An Integrated Circuit (IC) package comprises a package comprising a first set of pads having a pinout that is compatible with a chip core of a product family. A second set of pads are on substantially the same plane as the first set of pads and outside the package core. The second set of pads is configured to accommodate a circuit outside the chip core. The geometric center of the package core is different from the geometric center of the IC package.
Abstract:
A bump electrode is formed on an electrode pad using a Cu core ball in which a core material is covered with solder plating, and a board which has bump electrodes such as semiconductor chip or printed circuit board mounts such a bump electrode. Flux is coated on a substrate and the bump electrodes are then mounted on the electrode pad. In a step of heating the electrode pad and the Cu core ball to melt the solder plating, a heating rate of the substrate is set to have not less than 0.01° C./sec and less than 0.3.
Abstract:
An electrode connected to a TH pad requiring electric conduction is formed on a bonded surface of a first multilayer substrate having piercing TH to form a solder bump on the electrode. An electrode connected to the TH pad is formed on a bonded surface of a second multilayer substrate to be bonded having a piercing TH at a position opposite the electrode formed on the first multilayer substrate to form a solder bump on the electrode. A three-layered sheet is formed by applying an adhesive as a resin material that is not completely cured to both surfaces of a core material as the cured resin, and has holes at positions corresponding to the TH and the solder bump, respectively. The first and the second multilayer substrates are then laminated having the bonded surfaces facing each other while having the three-layered sheet positioned and interposed therebetween, and batch thermocompression bonded.
Abstract:
The described embodiment relates generally to the field of PCB fabrication. More specifically conductive spheres are used in a bonding sheet to enable inter-layer communication in a multi-layer printed circuit board (PCB). The conductive spheres in the bonding sheet can be used in place of or in conjunction with conventional electroplated vias. This allows the following advantages in multi-layer PCB fabrication: dielectric substrate layers made of varying types of material; PCBs with higher resilience to stress and shock; and PCBs that are more flexible.
Abstract:
An electrical interconnect forming method. The electrical interconnect includes a first substrate comprising a first electrically conductive pad, a second substrate comprising a second electrically conductive pad, and an interconnect structure electrically and mechanically connecting the first electrically conductive pad to the second electrically conductive pad. The interconnect structure comprises a non-solder metallic core structure, a first solder structure, and a second solder structure. The first solder structure electrically and mechanically connects a first portion of the non-solder metallic core structure to the first electrically conductive pad. The second solder structure electrically and mechanically connects a second portion of the non-solder metallic core structure to the second electrically conductive pad.