Abstract:
A method for manufacturing a circuit board system comprising mechanical protection of electrical components is presented. The circuit board system comprises a circuit board (101) furnished with electrical components (103-111) and a protection element (102) attached to areas of the circuit board which are free from the electrical components. The protection element has thickness in the direction perpendicular to the circuit board and it is shaped to leave the electrical components unscreened in the direction perpendicular to the circuit board. Thus, the protection element constitutes barriers protecting the electrical components but still allows the electrical components to be accessed from the direction perpendicular to the circuit board for example in a flying probe testing. Furthermore, the protection element provides electrical connections between functional entities of the circuit board system.
Abstract:
A compact solid state relay (7) is provided. Solid state devices (74, 75), such as Triacs or Thyristors are used to implement the relay functionality. The device is at least partially enclosed in a housing that has pins for mounting on an electronics board. A number of “U” shaped jumpers (72) or other jumpers or wires are provided in the housing to act as heat sinks. A subminiature fan (70) is positioned to create an air flow over the heat sinks and dissipate heat from the device.
Abstract:
Techniques for reducing resonance in contact fingers of a connector are described herein. An example of a device in accordance with the present techniques includes an add-in-card that includes a circuit board and an edge contact finger disposed on an outer surface of the circuit board. The add-in-card also includes a resonator disposed in an internal layer of the circuit board and coupled to the edge contact finger, wherein the resonator reduces a resonance in the edge contact finger.
Abstract:
A connector for a multilayered board to connect a flat cable to a middle layer of a multilayered board while minimizing the impact due to variations in the dimensional precision and strength of multilayered boards and/or preventing deformation of the multilayered board and improving contact stability. The connector includes a board-side connecting portion and a cable-side connecting portion. The board-side connecting portion includes a column-shaped terminal, and the cable-side connecting portion includes flat terminals. The column-shaped terminal protrudes from the middle layer of the multilayered board in the thickness direction. The flat terminals include resilient contact portions, contacting a side surface portion of the column-shaped terminal from the width direction of the insertion slot in response to insertion of the cable-side connecting portion into the insertion slot.
Abstract:
A method of producing an insert molded sensor assembly having at least one sensor element accommodated on a first side of a circuit board of the sensor assembly. During a first step, a plurality of pins are introduced and penetrate through the circuit board. The circuit board, including the at least one sensor element, is then disposed, during a second step, into a two-part insert mold tool so that the pins are supported on both sides of the circuit board in a direction transverse to a plane defined by the circuit board. A defined spacing distance, between a surface of the sensor element and the insert mold tool, is produced by the pins. During a third step of the method, the insert mold tool is filled with insert molding material, particularly a duroplast.
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 motor control unit includes two circuit boards accommodated in a board housing, and a connection holder placed on an outer face of the board housing. The connection holder includes external connection terminals and connection pins. Each one of the circuit boards is provided with multiple through-holes for receiving the connection pins, each of which is formed of an external connection pin and an internal connection pin. The connection holder and the circuit boards are placed such that the connection pins penetrate the through-holes of the circuit boards respectively.
Abstract:
A circuit board system including mechanical protection of electrical components includes a circuit board (101) furnished with electrical components (103-111) and a protection element (102) attached to areas of the circuit board which are free from the electrical components. The protection element has thickness in the direction perpendicular to the circuit board and it is shaped to leave the electrical components unscreened in the direction perpendicular to the circuit board. Thus, the protection element constitutes barriers protecting the electrical components but still allows the electrical components to be accessed from the direction perpendicular to the circuit board for example in a flying probe testing. The body of the protection element can be made of same material as the electrically insulating body of the circuit board. Thus, the thermal expansion co-efficient of the protection element can be substantially the same as that of the circuit board.
Abstract:
In a method for connecting lead wires to a touch panel, the method includes the steps of: providing through holes 9a to 9d the number of which corresponds to the number of electrode ends by perforation in a lower electrode plate 3; using a metal-pin 11 having a pin-shaft 11b and a disk shaped pin-head 11a with a diameter larger than an outer diameter of the pin-shaft; inserting the pin-shaft 11b into a metal-pin fixing hole formed corresponding to the through hole 9a at a circuit 10c in a connector tail of a lead wire 10, whereby the pin-shaft 11b is erectly provided on the connector tail of the lead wire 10; and inserting the pin-shafts 11b to 14b into the through holes 9a to 9d, and in addition, electrically connecting the pin-shaft inserted into a lower electrode plate 3 through a conductive adhesive 15 to electrode ends 6c, 7c, 6d, 7d.
Abstract:
A connection pin for mounting in a through-hole provided in a component carrier of an electronic assembly, the connection pin comprising an anchoring part adapted for insertion into said through-hole, a contact part adapted to extend outside said through-hole, and a flange part adapted to abut against said component carrier and located between said anchoring part and said contact part. The connection pin is provided with an internal cavity, which is provided with an outer opening at a free end of the anchoring part. The contact part is provided with a protruding elongated interconnection member at a free end thereof, and the respective shapes of the interconnection member and the internal cavity are such that the interconnection member is adapted for insertion into a corresponding internal cavity of another similar connection pin. A method for producing an electronic assembly with stackable modules is also disclosed.