Systems and methods for improved interconnections for electronic components using ACAs are provided. The methods involve using magnets specific for each component to be connected and optimized in terms of size and strength and position relative to the substrate and component. Also provided are ovens adapted for use with the methods and systems and kits providing the parts of the system for use with existing ovens.

A cable connection structure includes: a substrate that includes: an opening; and a core wire connection electrode that is arranged on one of a principle surface and an inner layer across the opening; a cable that is arranged on a principle surface side of the substrate and includes a core wire that is electrically connected to the core wire connection electrode, the core wire connection electrode being extended so as to be separated from the substrate, the core wire connection electrode being connected to the core wire.

There is provided a contact structure, comprising a substrate contact including a first contact portion that is located on a leading end side of the substrate contact and that comes into contact with a substrate and a second contact portion that is located nearer to a base end side of the substrate contact than the first contact portion; a seal member configured to cover a periphery of the substrate contact and to have a sealing surface that comes into contact with the substrate to seal the substrate contact; a first pressing portion configured to elastically apply a contact pressure on the substrate to the substrate contact; and a second pressing portion configured to come into contact with the seal member and to apply a contact pressure on the substrate to the seal member independently of the first pressing portion, wherein the first contact portion adheres to the seal member, and the second contact portion is fit in the seal member to be displaceable relative to the seal member.

A 3D printed drilling template (20, 30a, 30b, 30c) including: a rigid framework able to be manipulated by an operator or an automaton, and a set of traversing (22, 32a, 32b, 32c, 33c) orifices in the framework and arranged to guide the drilling of holes into a structure on which the drilling template is mounted, wherein the drilling template (20, 30a, 30b, 30c) is designed or revised on an ad-hoc basis and manufactured by 3D printing and using a 3D printing material based on a polymer material mixed with powdered graphene.

According to one aspect of the present invention, a method of manufacturing a flexible printed interconnect board, including an insulating base film; a conductive pattern that is layered on one surface side of the base film; and a plurality of connection terminals that are fixed to a terminal connection area on one edge side of the conductive pattern, includes: fixing the plurality of connection terminals in parallel to a component fixing jig; and mounting the plurality of fixed connection terminals together with the component fixing jig.

A tool is provided for shaping contact tab interconnects at a circuit card edge. The tool includes a base member with a slot to receive a circuit card edge. The slot is sized such that the edge of the circuit card is slidable lengthwise within the slot. The tool further includes shaping dowels disposed within the base member, including at least two shaping dowels that define a set of adjacent shaping dowels extending at an angle relative to each other. The set of adjacent shaping dowels are exposed, at least in part, within the slot so that with lengthwise sliding of the edge of the circuit card within the slot, the edge of the circuit card contacts and slides across the set of adjacent shaping dowels rounding off, at least in part, ends of the contact tab interconnects at the edge of the circuit card.

A component crimping apparatus includes: a substrate holding part that holds a substrate of a transparent material, a component previously attached to each electrode of electrodes juxtaposed in an edge of the substrate through a photo-curable adhesive member; a supporting part having a base part with an optical path and a transparent member on the base part and connected to the optical path, and supports, by the transparent member, a region under a targeted electrode in the substrate; a crimping tool arranged over the transparent member and presses the component to the substrate; a light irradiating part that irradiates the adhesive member attached to the targeted electrode with light through the optical path; and a light shielding member that covers a portion in which the transparent member is not installed in an opening part of the optical path in the base part.

Embodiments of the invention include flexible circuit board interconnections and methods regarding the same. In an embodiment, the invention includes a method of connecting a plurality of flexible circuit boards together comprising the steps applying a solder composition between an upper surface of a first flexible circuit board and a lower surface of a second flexible circuit board; holding the upper surface of the first flexible circuit board and the lower surface of the second flexible circuit board together; and reflowing the solder composition with a heat source to bond the first flexible circuit board and the second flexible circuit board together to form a flexible circuit board strip having a length longer than either of the first flexible circuit board or second flexible circuit board separately. In an embodiment the invention includes a circuit board clamp for holding flexible circuit boards together, the clamp including a u-shaped fastener; a spring tension arm connected to the u-shaped fastener; and an attachment mechanism connected to the spring tension arm. Other embodiments are also included herein.

A package comprises a body, and an electrically conductive pattern supported by said body. An interface portion is configured to receive a module to a removable attachment with the package. The electrically conductive pattern comprises, at least partly within said interface portion, a wireless coupling pattern that constitutes one half of a wireless coupling arrangement.

A method is described for solderless electrical press-in contacting of conductive press-in pins in circuit boards, the method comprising the following steps: Providing a circuit board having at least one contacting opening for press-in contacting; providing at least one press-in component having at least one conductive press-in pin; providing a sonotrode for exerting a force and for applying ultrasonic energy. In order to electrically and mechanically contact press-in pins to a circuit board by means of ultrasonic press-in technology, it is provided that the press-in component together with its press-in pin, is fixated during a press-in step, in particular held firmly in place, and that a force and ultrasonic energy are directly applied to the circuit board by means of the sonotrode such that the circuit board is pressed at the location of its contacting opening onto the press-in pin, not directly acted upon by the sonotrode, of the press-in component.