An optoelectronic assembly (10) is provided in different embodiments. The optoelectronic assembly (10) has the following; a printed circuit board (12); at least one optoelectronic first component (20) which is arranged on a first face (14) of the printed circuit board (12); a heat sink (24) which has a first surface (26) that is arranged on a second printed circuit board (12) face (16) facing away from the first component (20), wherein a boundary surface (34) extends between the second face (16) and the first surface (26); and at least one first welding connection (30), by means of which the heat sink (24) is directly connected to the printed circuit board (12) in a bonded manner and which together with the boundary surface (34) forms a first cut surface (36), the first component (20) at least partly overlapping the cut surface.

A lower surface of a center region of a board is held by a board holding table, and a lower surface of an end region (region in which a component placing region is provided) of the board is supported by a backup table. After the board holding table is moved together with the backup table and the component placing region is positioned at a working position, the placing head presses the component from above to the component placing region to place the component on the board. Meanwhile, a suction mechanism sucks an end region of the board which is supported by the backup table through a plurality of suction ports opened to an upper surface of the backup table.

Provided is a method for manufacturing an electronic device. The method includes providing a panel to a stage, providing a circuit board, aligning the circuit board so that first pads of the circuit board face a first pad area of the panel and second pads of the circuit board face a second pad area of the panel, and compressing a first portion of the circuit board on which the first pads are arranged to the first pad area of the panel. The aligning of the circuit board occurs via by external contact on one surface of the first portion of the circuit board and one surface of the second portion of the circuit board.

The invention discloses, pickup method, equipment and EMI electromagnetic shielding layer manufacturing method of SiP module. The method for picking up the SiP module comprises the following steps: A nozzle descends to touch the upper surface of the SiP module; the nozzle sucks the SiP module; an air thimble ascends to touch the lower surface of the carrier; the air thimble covers the through hole of the carrier, so as to form the enclosed space for the lower surface of the SiP module, the through hole and the air thimble; compressed air is sprayed into the enclosed space from the hollow structure of the air thimble and acts on the lower surface of the SiP module, so that the bonding between the SiP module and the doubled-sided adhesive tape is loosened; the nozzle ascends and picks up the SiP module.

A ball attach tool may include a housing a valve module. The housing may include a plurality of pick-up holes configured to pick up balls when a reduced pressure is applied thereto. The valve module may control a reduced pressure applied to the pick-up holes.

Provided are an apparatus of adsorbing solder balls and a method of attaching the solder balls using the same. The solder ball adsorbing apparatus includes a body, a plurality of eject pins disposed in the body and configured to move in downward and upward directions with respect to a substrate on which the solder balls are to be loaded, and a solder ball holder disposed in the body and configured to hold the solder balls at the eject pins and release the solder balls therefrom. The eject pins include a first eject pin disposed at a center of the body in parallel with a vertical surface that is perpendicular to a bottom surface of the body, a second eject pin disposed at an edge of the body at a first angle with respect to the vertical surface, and a third eject pin disposed between the first and second eject pins.

Presented is an apparatus for generating a transfer pattern to be used in a transfer printing process. The pattern is generated in a substrate that could be a web substrate and that bears one or more trenches. A filler to be transferred is made to fill the trenches within the web substrate. Upon completion of the trench by filler filling, the substrate, the scraper and the squeegee are translated from the working zone in a synchronized movement, such that in course of the translation movement at least the scraper remains in full contact with the substrate.

A contact arrangement. The contact arrangement has at least one electrically conductive substrate, in particular a circuit carrier. The contact arrangement also has a flexible circuit board having at least one reversibly bendable, electrically insulating film and at least one or only one electrically conductive layer. The electrically conductive layer is electrically conductively connected to the substrate. The contact arrangement has an electrically conductive connecting element, which is arranged on the electrically conductive layer of the flexible circuit board so that the connecting element and the substrate enclose the flexible circuit board between them. The connecting element is welded to the electrically conductive layer of the flexible circuit board and to the substrate such that a welded connection extends from the connecting element through the electrically conductive layer of the flexible circuit board, in particular transversely to a flat extent of the flexible circuit board, into the substrate.

A ball attach tool may include a housing a valve module. The housing may include a plurality of pick-up holes configured to pick up balls when a reduced pressure is applied thereto. The valve module may control a reduced pressure applied to the pick-up holes.

Systems and methods for laser assisted deposition of a material includes a printing unit configured to print individual dot-like portions of a material from a donor substrate onto a receiving substrate, and a vacuum shuttle configured to be positionable in two or three dimensions between the printing unit and the donor substrate and to engage the donor substrate upon application of a vacuum to the vacuum shuttle. The printing unit may include a coating system and a laser. The vacuum shuttle includes a vacuum channel about its periphery and an open window through which the laser irradiates the donor substrate. The vacuum channel is fluidly coupled to a vacuum inlet for receiving a vacuum suction, thereby to engage the donor substrate and hold it taught against the bottom of the vacuum shuttle in operation. The vacuum shuttle may also include one or more distance measuring sensors and fiducial markers.