A press-fit terminal for connecting a first component and a second component includes a first elastic portion for engaging with the first component, a second elastic portion for engaging with the second component, and an intermediate portion arranged between the first and second elastic portions in an axial direction of the terminal. The intermediate portion comprises a first plurality of radially extending arms for engaging with the first component and a second plurality of radially extending arms for engaging with the second component.

An interposer for connecting a module to an M.2 socket includes a different form factor connector. The interposer includes an M.2 connector to couple the interposer to the M.2 socket. The M.2 connector is formed to mate with the M.2 socket. The interposer includes a different form factor socket to couple the interposer to the module including the different form factor connector. The different form factor socket is formed to mate with the different form factor connector.

An electronics housing for accommodating and making electrical contact with a printed circuit board has at least one signal contact for connection to the printed circuit board, which is in the form of a press-in contact, and at least two power contacts for electrical connection to the printed circuit board, which are in the form of press-in contacts and have a width that is greater than the width of the at least one signal contact. The at least two power contacts are longer than the at least one signal contact for easier assembly with the printed circuit board.

An apparatus may include a press-fit connection for a printed circuit board and a connecting element, where the connecting element is pressed into the printed circuit board in that the connecting element is tapered at the end facing the printed circuit board, and where an insertion depth to which the tapered section is inserted in the printed circuit board ensures a compensation for tolerances.

A semiconductor device, including a semiconductor module, a positioning member and a printed board. The semiconductor module includes a case that stores a semiconductor chip, a plurality of external terminals electrically connected to the semiconductor chip and extending upward from a front surface of the case, and a reference pin extending upward from the front surface of the case. The positioning member has a reference hole and a plurality of supporting holes penetrating therethrough. The printed board including a plurality of terminal holes that respectively correspond to the plurality of external terminals. The printed board is disposed on the front surface of the case via the positioning member. The plurality of external terminals of the semiconductor module are respectively attached to the plurality of terminal holes.

A thermally isolating mounting boss for mechanically and electrically coupling a PCB to a chassis while thermally isolating the PCB from the chassis comprises a base section with a base surface coupled to the chassis and an isolation section comprising a plurality of pillars for thermally isolating the PCB from the chassis. A connector maintains the PCB in contact with the plurality of pillars, wherein the connector and the plurality of pillars form grounding circuits. The small cross-section area of each pillar and the cross-section area of the connector have increased thermal resistance to thermally isolate the PCB from the chassis. The pillars may extend from the base section or may be arranged radially outward of the base section.

A generator control unit (GCU) having thermal control includes a GCU housing having a first side and a second side. A printed wiring board (PWB) is within the GCU housing between the first side and the second side. The PWB includes a component side that faces a first side of the GCU housing. At least one through via is positioned through a thickness of the PWB. At least one boss is positioned on the component side of the PWB. The at least one boss extends from a component of the PWB to the first side of the GCU housing.

A device for reducing acoustic vibration in an electronic device includes a noninvasive fastener configured to fix a printed circuit board (PCB) to a mechanical ground, and the noninvasive fastener provides vibrational dampening in both compression and tension.

Techniques are disclosed relating to a locking pin used to secure components in an electronics module. For example, in some embodiments an electronics module includes a housing lower part that includes a lower receiving element and a housing upper part that includes an upper receiving element that is aligned with the lower receiving element. In various embodiments, a locking pin may be used to connect a circuit board in the electronics module. For example, in some embodiments the circuit board includes at least one lead-through opening and the circuit board is connected to the housing lower part via the locking pin that is inserted in a positive-locking manner through the lead-through opening into the lower receiving element. Further, in some embodiments, an upper pin section of the locking pin may be inserted into an upper receiving element of the housing upper part in a positive-locking manner.

A coupling for connecting a circuit board to a mount with a fastener. The mount may be connected to a component. The fastener includes a first snap-fit connection formation for establishing a snap-fit connection with a second snap-fit connection formation provided on the mount. When connected, the fastener clamps the circuit board against the mount. The fastener further includes a first engagement formation configured to engage with a second engagement formation on the mount for bracing the snap-fit connection.