Abstract:
A circuit board assembly includes a printed circuit board and a component. The printed circuit board includes a plated thru-hole through the printed circuit board. The component includes a lead to interconnect the component to the printed circuit board. The lead is formed to define an opening through the lead. The lead is placed into the plated thru-hole such that at least part of the opening is within the plated thru-hole. The lead is laser welded to the plated thru-hole.
Abstract:
A method for solderless electrical press-fit contacting of electrically conductive press-fit pins in circuit boards include: providing a circuit board having a thickness, at least one electrical conductor path, and a contacting opening guided perpendicularly through the circuit board and having a metallized inner wall; providing an electrically conductive press-fit pin having a longitudinal axis and having a press-fit region suitable for press-fitting into the contacting opening and having a substantially round cross section; and press-fitting the press-fit pin into the contacting opening by applying onto the press-fit pin a force acting along the longitudinal axis of the press-fit pin, press-fitting being assisted by the application of ultrasound acting on the press-fit pin.
Abstract:
According to embodiments of the invention, an electronic component assembly may be provided. The electronic component assembly may include an electronic component body. The electronic component assembly may also include a non-conductive force transfer plate affixed to the electronic component body to receive an assembly force. The electronic component assembly may also include a plurality of electrical connectors passing through the non-conductive force transfer plate, wherein first ends of the electrical connectors are located within the electronic component body and second ends are located outside the electronic component body, and the electrical connectors have a force transfer structure adapted to engage the non-conductive force transfer plate and transfer at least a portion of the assembly force from the force transfer plate to the electrical connectors.
Abstract:
A lead-attached electrical element and a mounting board to which the lead-attached electrical element is mounted both contribute to a reduction in the size of the mounting board as well as facilitate rework. The lead-attached electrical element is constituted from an electrical element and two leads. Each lead includes a main portion which is bonded to a respective electrode face of the electrical element, and a bent portion which is inclined with respect to the main portion. The mounting board is constituted from a PC (printed circuit) board and the lead-attached electrical element. Two conductive lands are provided on a surface of the PC board. The lead-attached electrical element has been inserted into an aperture in the PC board, and bent portions of the leads attached to the electrical element are bonded to the conductive lands so that the electrical element is suspended in the aperture by the leads.
Abstract:
An improved passive electronic stacked component is described. The component has a stack of individual electronic capacitors and a first lead attached to a first side of the stack. A second lead is attached to a second side of the stack. A foot is attached to the first lead and extends inward towards the second lead. A stability pin is attached to one of the foot or the first lead.
Abstract:
A printed board includes a printed board body having a first side, a second side opposing the first side, and a through-hole; a printed conductor disposed on the first side of the printed board body; and a bus bar disposed on the second side of the printed board body, the bus bar including a terminal that extends through the through-hole. The terminal includes a plurality of branched terminal portions at a position corresponding to an interior of the through-hole, and at least one of the branched terminal portions is bent and attached to the printed conductor.
Abstract:
An electrical contact (3) includes a body section (30), a contacting arm (31) extending upward from the body section (30), a soldering section (32) formed by cutting out from the body section and then extending outwardly. The soldering section (32) comprising a first extending arm (321) connected to the body section (30), a second extending arm (322) bent downwardly from the first extending arm (321), and a soldering pad (323) extending from the second extending arm (322) toward the body section (30). An opening (300) is defined after the soldering section (30) is cut out from the body section.
Abstract:
An electronic component includes an electronic component body having lead wires led out therefrom and compliant pins. Compliant pins include connections to be connected to lead wires and are in contact, at end surfaces on the other side thereof, with a lead-wire lead-out surface of the electronic component body. Compliant pins are provided at one end thereof with connectors to be press-fitted into the throughholes of a circuit board.
Abstract:
A holding member, for an electronic component inserted into a through hole provided in an electronic circuit board which includes a plate-shaped base that is fixed to the electronic component, a first leg and a second leg. The first leg extends from the base, and is inserted into the through hole. The first leg has a catch that projects laterally and outwardly with respect to an inserting direction in which the first leg is inserted into the through hole and locked with an edge of the through hole after the first leg is inserted. The second leg extends from the base and is inserted into the through hole together with the first leg. The second leg elastically deforms when the second leg comes into contact with an inner surface of the through hole, presses the first leg to an opposite side inner surface of the through hole, and elastically holds the catch in a state in which the catch is locked with the edge of the through hole after the second leg is inserted.
Abstract:
A pin having a contact part may be inserted into a receiving opening in a printed circuit board and anchored in the receiving opening with a press fit. Also, a method provides for inserting a pin into a receiving opening in a printed circuit board, in which the pin is inserted into the receiving opening from one side of the printed circuit board, and a contact part of the pin is anchored in the receiving opening with a press fit. The contact part is inserted into the receiving opening in a contactless manner or with a sliding fit and is subsequently deformed within the receiving opening by expansion transversally to the insertion direction in order to anchor the contact part in the receiving opening with a press fit.