A conductive transfer and method of producing the conductive transfer is described. The conductive transfer comprises two non-conductive layers and a conductive layer between the two non-conductive layers and at least one electrical component in electrical communication with the conductive layer. The conductive layer includes a power trace for providing a power source to the electrical component and a data trace for providing the electrical component with an electrical signal.

A display may have a pixel array such as a liquid crystal pixel array. The pixel array may be illuminated with backlight illumination from a backlight unit. The backlight unit may include a printed circuit board, a plurality of light-emitting diodes mounted on the printed circuit board, at least one light spreading layer formed over the printed circuit board that spreads light received from the plurality of light-emitting diodes, a partially reflective layer formed over the at least one light spreading layer, a color conversion layer formed over the partially reflective layer, a collimating layer formed over the color conversion layer, a brightness enhancement film formed over the collimating layer, and a diffuser formed over the brightness enhancement film. The at least one light spreading layer may include two light spreading layers with elongated protrusions that are rotated relative to each other.

Various embodiments include a circuit carrier comprising: an installation place for an electronic component; and a deposit of a joining adjuvant applied to the installation place. The installation place has at an edge, a recess forming a depression in a surface of the circuit carrier. The deposit comprises a sintered material with a protuberance at an edge of the deposit.

An electrical component, such as an RF device or thermal bridge, for use with a printed circuit board. The component has a first dielectric layer having a top and a bottom, a first conductive trace positioned on the bottom of the dielectric layer, and a first ground layer positioned on the bottom of the dielectric layer and spaced apart from the first conductive trace. For RF applications, a second conductive trace is positioned on top of first dielectric, a second dielectric is positioned on top of the second conductive trace, and a second ground plane is positioned on top of the second dielectric. A printed circuit board having a third conductive trace may then be coupled to the first conductive trace by a first solder layer.

RFID inlays or straps may be assembled using impulse heating of metal precursors. Metal precursors are applied to and/or included in contacts on an RFID IC and/or terminals on a substrate. During assembly of the tag, the IC is disposed onto the substrate such that the IC contacts physically contact either the substrate terminals or metal precursors that in turn physically contact the substrate terminals. Impulse heating is then used to rapidly apply heat to the metal precursors, processing them into metallic structures that electrically couple the IC contacts to the substrate terminals.

A metal composition that includes a first metal; and a second metal containing a first transition metal element added to a first alloy having a melting point higher than a melting point of the first metal, and the second metal is an alloy capable of producing an intermetallic compound with the first metal.

A high-frequency board includes an insulating substrate, a first line conductor, a second line conductor, a capacitor, a first bond, and a second bond. The insulating substrate has a recess on its upper surface. The first line conductor extends from an edge of the recess on the upper surface of the insulating substrate. The second line conductor faces the first line conductor across the recess on the upper surface of the insulating substrate. The capacitor overlaps the recess. The first bond joins the capacitor to the first line conductor. The second bond joins the capacitor to the second line conductor, and is spaced from the first bond.

System and methods to enable integration of electronic components to form LED assembly with a high accuracy (0.1 mm or better) and high process capability (Cpk of 1.67 or higher) for realizing precision electro-mechanical device. The system and methods use through holes that connect a printed circuit board to a housing as fiducial marks and LED emitter center as a reference point for alignment in order to improve the efficacy and accuracy of assembling of the LED assembly. The through holes are drilled by using laser drilling or milling machine, Use of adhesive to anchor the LED component down prior to reflow process i.e. to avoid self alignment characteristic of component on solder paste during reflow process.

A method for manufacturing a semiconductor package structure is provided. The method includes: (a) providing a semiconductor structure including a first device and a second device; (b) irradiating the first device by a first energy-beam with a first irradiation area; and (c) irradiating the first device and the second device by a second energy-beam with a second irradiation area greater than the first irradiation area of the first energy-beam.

A circuit board includes an insulating layer that is layered on a substrate; and a dam member in a form of a rectangular frame that is formed on the insulating layer. A corner part of the dam member includes a slope that slopes down from an inner wall surface to a surface of the insulating layer in a lower part that makes contact with the surface of the insulating layer; and a perpendicular part that is perpendicular to the surface of the insulating layer in an upper part separated from the surface of the insulating layer.