Abstract:
A method for printing on a substrate, including providing a substrate having at least one three-dimensional surface and performing inkjet printing of an ink on at least a portion of the at least one three-dimensional surface by repositioning an inkjet printing head relative to the substrate in only two dimensions.
Abstract:
A method for fabrication of a circuit board using the disclosed embodiments relies on a CAD model of a multilayer circuit board with conductive elements defined by layer. A first granular conductive material layer is introduced into a mold. A fusion process element traverses across the mold to fuse selected portions of the first granular conductive material layer forming first layer conductive elements. An additional granular conductive material layer is introduced into the mold over the fused selected portions of the first layer and unfused portions of the first layer. The fusion process element is then traversed across the mold to fuse selected portions of the additional granular conductive material layer forming an additional layer of conductive elements. Unfused granular conductive material is then purged from the fused first conductive elements and additional conductive layer elements. A dielectric material is then infused into a structure formed by the fused first conductive elements and additional conductive layer elements.
Abstract:
The invention relates to a method for manufacturing a printed circuit board (10) having a substrate (2) and an electric circuit (8), in particular for a rear view device of a motor vehicle, the method comprising the following steps: manufacturing a plurality of substrate parts (2a, 2b); and selecting at least two of the substrate parts (2a, 2b), and connecting the selected substrate parts (2a, 2b) and providing the connected substrate parts (2a, 2b) with the circuit (8).
Abstract:
To provide a resin composition having excellent thermal conductivity and excellent insulation reliability, a molded object, a substrate material, and a circuit board. [Solution] Provided is a resin composition which comprises an epoxy resin, a hardener, and an inorganic filler, wherein the epoxy resin and/or the hardener has a naphthalene structure, the inorganic filler comprises hexagonal boron nitride, and the inorganic filler accounts for 50-85 vol. % of the whole resin composition. Since a naphthalene structure, which imparts the satisfactory ability to wet the hexagonal boron nitride included in the inorganic filler, has been introduced into the epoxy resin and/or the hardener to heighten the inorganic-filler loading characteristics, this resin composition attains excellent heat dissipation properties, heat resistance, insulating properties, etc.
Abstract:
An object of the present invention is to allow stress that may be applied to a semiconductor package to be suppressed, when the semiconductor package is mounted on a curved board. In a mount board 1, a semiconductor package 20 is mounted on a curved board 10 including a curved surface on at least a portion thereof. The curved board 10 includes a pedestal portion 13a disposed on a region of the curved surface portion where the semiconductor package 20 is mounted and having an upper surface thereof formed flat, and a plurality of pad portions 15a disposed on the flat surface of the pedestal portion 13a. The pedestal portion 13a is formed of an insulating material. The semiconductor package 20 is mounted on the pad portions 15a.
Abstract:
The present disclosure relates to polymer compositions. The disclosed compositions comprise a thermoplastic polymer, a laser direct structuring additive, and a reinforcing filler. Also disclosed are methods for making the disclosed polymer composition and articles of manufacture comprising the disclosed polymer composition.
Abstract:
Metalized plastic substrates, and methods thereof are provided herein. The method includes providing a plastic substrate having a plurality of accelerators dispersed in the plastic substrate. The accelerators have a formula selected from the group consisting of: CuFe2O4-δ, Ca0.25Cu0.75TiO3-β, and TiO2-σ, wherein δ, β, σ denotes oxygen vacancies in corresponding accelerators and 0.05≦δ≦0.8, 0.05≦β≦0.5, and 0.05≦σ≦1.0. The method further includes removing at least a portion of a surface of the plastic substrate to expose at least a first accelerator. The method further includes plating the exposed surface of the plastic substrate to form at least a first metal layer on the at least first accelerator, and then plating the first metal layer to form at least a second metal layer.
Abstract:
The present invention relates to a polymer composition comprising the following components: a) 76,6-99,9 mass % of aromatic polycarbonate, b) 0,5-20 mass % of laser direct structuring additive, c) 0-2,4 mass % of rubber like polymer, and d) 0,01-1 mass % of acid and/or acid salt wherein the mass % is calculated relative to the sum of a), b), c) and d). The invention also relates to a moulded part containing this composition, to a circuit carrier containing such moulded part and to a process for producing such circuit carrier.
Abstract:
An electronic module is provided with a circuit board 2, a chip component 3 surface-mounted on the circuit board 2 and a mold member 4 that seals the chip component 3. The circuit board 2 includes a land 7 and a resist pattern 8A that partially covers the land 7. The chip component 3 has a bottom electrode 6b and a side electrode 6c. The resist pattern 8A has an overlapped portion overlapped with the bottom electrode 6b of the chip component 3 in a planar view. A portion of the mold member 4 is filled at least in a first gap D1 between the resist pattern 8A and the first solder portion 10a.
Abstract:
For producing a three-dimensional circuit component, an electronic component is mounted on a synthetic resin block. A plurality of electrically-conductive patterns used to establish an electrical connection to the electronic component are formed on the block along a three-dimensional shape of the block. An end of each electrically-conductive patterns is provided with a solder-disposed section. A solder is provided between the solder-disposed section and an opposed surface of the electronic component. The section of each electrically-conductive patterns other than the solder-disposed section and a section on which the electronic component is mounted is internally formed in the block. Since the section of each electrically-conductive patterns other than the section on which the electronic component is mounted is internally formed in the block, the electrically-conductive patterns are not unnecessarily exposed.