Abstract:
A signal transmission device. The signal transmission device comprises a first and a second flexible printed circuit boards, connecting an display module and a system. The first flexible printed circuit board electrically connects the display module and the system. The second flexible printed circuit board electrically connects the display module and the first flexible printed circuit board, wherein the first and second flexible printed circuit boards are joined by hot bar soldering or anisotropic conductive film (ACF) bonding.
Abstract:
A system and method for fabricating an electrical circuit in which a digital control image (46) is generated by non-uniformly modifying (44) a representation of an electrical circuit (40), such that an electrical circuit pattern (72) recorded on a substrate (12) using the digital control image (46) precisely fits an already formed electrical circuit portion (62).
Abstract:
A substrate 6a having terminals 9 thereon is bonded to a wiring board 11 having output terminals 11c thereon through an ACF 20. The pitch P2 of the output terminals 11c is different from the pitch P1 of the terminals 9 taking into account deformation of the substrate 6a or the wiring board 11 during bonding. When the substrate 6a or the wiring board 11 deforms during the bonding, the both terminals are connected with the pitch P1′ of the terminals 9 and the pitch P2′ of the output terminals 11c becoming approximately equal to each other.
Abstract:
When solder paste passes through a first gap located between a pressurizing member and a printing mask during solder paste printing, a pressure directed toward the printing mask is applied from the pressurizing member to the solder paste.
Abstract:
A printed circuit board is by formed by laminating an interlaminar insulating layer on a conductor circuit of a substrate, in which the conductor circuit is comprised of an electroless plated film and an electrolytic plated film and a roughened layer is formed on at least a part of the surface of the conductor circuit.
Abstract:
Apparatuses and methods are disclosed for determining the alignment of leads on components. Physical and/or superficial fiducial markers on components are used to distinguishes the alignment of leads on the component. The alignment of fiducial markers on the component are detected. A predetermined fiducial alignment is provided that corresponds to a predetermined lead alignment. The detected fiducial alignment is compared to a predetermined fiducial alignment to determine the lead alignment. When used in conjunction with a pick and place machine, the methods and apparatuses provide a means for verifying and correcting the lead alignment of components prior to placement and attachment to a substrate.
Abstract:
A system for unveiling embedded targets in printed circuit board substrates includes a micro-machining device, a sensor, and a controller. The micro-machining device removes portions of an opaque layer overlaying an alignment target in a general region in which the target should be located, and the sensor senses whether the alignment target is located at selected locations where portions of the opaque layer have been removed. In response to sensing the presence or absence of an alignment target at the selected locations, the controller directs the micro-machining device to remove additional portions of the opaque layer.
Abstract:
A component transfer apparatus is provided. The component transfer apparatus comprises a pick and place machine having a component feed source and a movable pick head having access to the component feed source. A component alignment detector is directed toward the component feed source and a controller is coupled to the component alignment detector. The controller contains instructions which, when executed by the controller, cause the controller to compare the detected component alignment with a known component alignment.
Abstract:
Exemplary embodiments of the present invention provide a pattern forming method that secures sufficient alignment accuracy when a pattern is formed by droplet ejection. Exemplary embodiments provide a pattern on a substrate by placing a liquid material including a pattern forming material onto the substrate by droplet ejection, including placement of the liquid material including an alignment mark forming material, onto the substrate by the droplet ejection prior to forming the pattern; and placement of the pattern forming material by making use of a placed alignment mark.
Abstract:
A unified process of making an electrical structure includes performing a plurality of laser etching operations on a workpiece, without removing the workpiece from a laser processing system. The workpiece includes a conductive material disposed on an electrically insulating substrate, and the plurality of laser etching operations include, but are not limited to, two or more of forming a fiducial, forming thick metal traces separated by high aspect ratio spaces, cutting an alignment hole, cutting a folding line, and singulating the electrical structure. In another aspect of the invention, a database is prepared, and communicatively coupled to the laser processing system to provide control signals that direct a portion of the plurality of operations of the laser processing system, wherein each plurality of etching operations is defined with respect to a common coordinate system.