Abstract:
An optical component including a multi-layer substrate, an optical waveguide element, and two optical-electro assemblies is provided. The multi-layer substrate includes a dielectric layer, two circuit layers, and two through holes passing through the dielectric layer. The optical waveguide element is located on the multi-layer substrate and between the through holes. The optical-electro assemblies are respectively inserted into the corresponding through holes and correspondingly located at two opposite ends of the optical waveguide element. One of the optical-electro assemblies transforms an electrical signal into a light beam and provides the light beam to the optical waveguide element, and the other one of the optical-electro assemblies receives the light beam transmitted from the optical waveguide element and transforms the light beam into another electrical signal. A manufacturing method of the optical component and an optical-electro circuit board having the optical component are also provided.
Abstract:
A method for assembling an opto-electronic circuit board is described as follows. A bottom cladding layer, a core layer and a top cladding layer are formed on the base orderly such that a waveguide is completed. A first light-guide hole is formed in a base material, and a light source is disposed on the base material thereby forming an emission component. A second light-guide hole is formed in another base material, and then an optic receiver is disposed on another base material thereby forming a receiver component. A circuit substrate is processed in order to form a first cavity, a second cavity and a third cavity on a first circuit layer of the substrate. The waveguide, the emission component and the receiver component are disposed respectively in the first cavity, the second cavity and the third cavity.
Abstract:
A manufacturing method of multilayer flexible circuit structure including the following steps is provided. Two first flexible substrates are correspondingly bonded on two sides of a release film, and two conductive materials are correspondingly formed on the two first flexible substrates. The two conductive materials are patterned to form two first inner-layer circuits. Two outer build-up structures are bonded on the two corresponding first flexible substrates. The release film is removed, so as to separate the two first flexible substrates. An outer-layer circuit is formed on each of the first flexible substrates and the corresponding outer build-up structure, wherein the outer-layer circuit is connected to the corresponding first inner-layer circuit, and each of the first flexible substrates, the corresponding first inner-layer circuit, the outer build-up structure and the outer-layer circuit correspondingly form a multilayer flexible circuit structure. Another manufacturing method of multilayer flexible circuit structure is also provided.
Abstract:
A manufacturing method of circuit structure embedded with heat-dissipation block including the following steps is provided. A core board including a first dielectric layer and two first conductive layers located on two opposite sides of the first dielectric layer is provided. A through hole penetrated the core board is formed. A heat-dissipation block is disposed into the through hole. Two inner-layer circuits are formed on two opposite sides of the core board. At least one build-up structure is bonded on the core board, wherein the build-up structure includes a second dielectric layer and a second conductive layer, and the second dielectric layer is located between the second conductive layer and the core board. A cavity is formed on a predetermined region of the build-up structure, and the cavity is communicated with the corresponding inner-layer circuit. Another manufacturing method of circuit structure embedded with heat-dissipation block is also provided.
Abstract:
An opto-electronic circuit board includes a substrate, a cavity, blind vias, metal layers, a first chip, a second chip, and the optical component. The substrate includes a first circuit layer, a second circuit layer, and a dielectric layer disposed between the first circuit layer and the second circuit layer. The cavity is disposed on the dielectric layer, in which the cavity extends from the first circuit layer to the second circuit layer. The blind vias are disposed at opposite sides of the cavity. The first chip is disposed on the second circuit layer with corresponding to one of the blind vias. The second chip is disposed on the second circuit layer with corresponding to the other one of the blind vias. The optical component is disposed in the cavity, in which the second surface of the optical component is connected to the first circuit layer.
Abstract:
A manufacturing method for a multi-layer circuit board includes the following steps. Firstly, a substrate having two surfaces opposite to each other and a via connecting there between is provided. Next, a patterned circuit layer is formed on each of the surfaces by using the via as an alignment target. Each patterned circuit layer includes a concentric-circle pattern. Next, a first stacking layer is formed on each of the surfaces. Then, a first through hole penetrating regions of the first stacking layer and the substrate where a first concentric circle from the center of the concentric-circle pattern is orthogonally projected thereon is formed. Next, a second stacking layer is formed on each first stacking layer. Afterward, a second through hole penetrating regions of the first, the second stacking layers and the substrate where a second concentric circle from the center of the concentric-circle pattern is orthogonally projected thereon is formed.
Abstract:
A fabrication method for a flexible circuit board is provided. The fabrication method includes the following steps. Firstly, a release film having an upper surface and a lower surface opposite to each other is provided. Next, two flexible substrates are respectively disposed on the upper surface and the lower surface. Next, a plurality of nano-scale micro-pores are formed on each flexible substrate to form two non-smooth flexible substrates. The nano-scale micro-pores evenly distributed over an outer surface of each non-smooth flexible substrate. Each non-smooth flexible substrate being adapted to be performed a plating process directly on the outer surface thereof.
Abstract:
A manufacturing method of a circuit board including the following steps is provided. A first patterned circuit layer is formed on a surface of a circuit substrate, and the first patterned circuit layer exposes a portion of the surface of the circuit substrate. A patterned glue layer is formed on the portion of the surface of the circuit substrate exposed by the first patterned circuit layer. A second patterned circuit layer is transfer-printed on the corresponding patterned glue layer. In addition, a structure of the circuit board is also mentioned.
Abstract:
A capacitor and a manufacturing method thereof are provided. The capacitor includes a porous substrate, an electrolyte composition, and a pair of electrodes. The porous substrate has a plurality of holes. The electrolyte composition is located in the holes of the porous substrate, and the electrolyte composition includes an electrolyte solution and a nano carbon material dispersed in the electrolyte solution. The electrodes are respectively located on two opposite surfaces of the porous substrate.
Abstract:
A circuit board and a manufacturing method thereof are provided. The circuit board includes a dielectric substrate, a circuit pattern and a dielectric layer. The circuit pattern is disposed on the dielectric substrate. The dielectric layer is disposed on the dielectric substrate and covers the circuit pattern. The dielectric layer includes a dielectric matrix and a mesh-shaped fiber structure disposed in the dielectric matrix. There is no mesh-shaped fiber structure on a portion of the dielectric substrate exposed by the circuit pattern.