Abstract: A method for forming a connection between a busbar (1) and a contact section (20) comprising: providing a first conductive section (11) made from aluminum, providing a second conductive section (12) made from aluminum, wherein the second conductive section (12) includes the contact section (20) or is connected to the contact section (20) and wherein the second conductive section (12) is at least partially covered with nickel and/or tin, and creating a laser welding bond, in particular a laser welding seam (10), between the first conductive section (11) and the second conductive section (12), by laser welding.

Abstract: Embodiments described within disclose a floating interconnect in which two connectors on a carrier float a small amount in the direction of connection. Cam handles on the carrier provide leverage that overcomes an initial mating force and lever the carrier connections most or all of the way to full seat against the mating board connectors. Then, for each connector, a thumb screw passes through the connector and is screwed into the mating connector. As the thumbscrew is fastened, a shoulder on the thumbscrew draws the connected down and fully seats it against the board connector with move of the carrier connector being accommodated by the float of the connector with respect to the carrier. This reduces or prevents the compressive stress on the carrier that would otherwise result from having the connections made solely by forcing the carrier against the mating connectors.

Abstract: A connector includes a housing having a latch and a terminal mounted in the housing. The terminal has a locking hole with a locking hole front portion in a terminal insertion direction along which the terminal is inserted into the housing and a locking hole rear portion in the terminal insertion direction. A size of the locking hole front portion is larger than a size of the locking hole rear portion. The latch elastically protrudes into the locking hole to lock the terminal in the housing. The latch has a latch front portion in the terminal insertion direction and a latch rear portion in the terminal insertion direction. A size of the latch front portion is larger than a size of the latch rear portion. The size of the latch rear portion is smaller than the size of the locking hole front portion.

Abstract: A socket assembly includes a connecting base, comprising a signal port and a shielding structure. The shielding structure is disposed around a peripheral edge of the signal port. The plug assembly includes a connecting head. The connecting head includes a signal terminal and a ground component. The signal terminal and the ground component are disposed side by side. When the plug assembly is fixedly connected to the socket assembly, each connecting head extends into one connecting base, the signal terminal is conducted to the signal port, and the ground component is bonded to the shielding structure. The shielding structure of the connector is disposed around peripheral edges of the signal terminal and the signal port, and forms bonding with the ground component. This may effectively prevent a phenomenon of signal current return, avoids impact of crosstalk resonance, and improves signal transmission integrity of the connector.

Abstract: The present invention is directed to a wire comb. The wire comb includes a flat body which includes a first end and a second end. The ends are connected by an arcuate section which has an upper and lower surface. The upper surface of the arcuate section has a wire mount area that includes at least one opening formed in the upper surface with each opening including a shape selected to receive and hold a wire within. A mounting feature extends from at least one of the first end and the second end. The mounting feature is adapted to engage a printed circuit board.

Abstract: A connector cable includes a plurality of contacts placed in a row and a plurality of cables connected to the plurality of contacts. The plurality of cables includes at least three pairs of high-speed differential signal lines for transmitting high-speed differential signals, at least one non-high-speed differential signal line for transmitting a non-high-speed differential signal, and a plurality of ground terminals. The plurality of ground terminals is allocated to contacts on both ends among the plurality of contacts and a contact between two pairs of high-speed differential signal lines or between one pair of high-speed differential signal lines and one non-high-speed differential signal line to limit the number of consecutive pairs of high-speed differential signal lines to two.

Abstract: Disclosed is a power plug capable of 360° rotation, relating to the field of plugs. The power plug includes a housing, a rotating member, and a locking structure. The rotating member is rotatably connected to the housing. The rotating member is provided with a pin. The pin rotates synchronously with the rotating member. The locking structure includes a locking member slidably connected to either the housing or the rotating member. The locking member is adapted to lock or unlock a relative rotation between the rotating member and the housing. The locking member locks the relative rotation between the housing and the rotating member, thereby prolonging the service life of the power plug, improving the convenience during assembly, and ensuring a reliable electrical connection.

Abstract: A connector may be disposed in the communication device, and may be signally connected to a circuit board in the communication device. The connector may include a terminal module and a shielding part. The terminal module includes a plurality of connection terminals, and the plurality of connection terminals include a signal terminal and a ground terminal. The connection terminal includes a first end, a second end, and a terminal body that connects the first end and the second end. The shielding part includes a shielding body and a contact arm. In addition, the contact arm may be elastically abutted against the ground terminal, to implement an electrical connection between the contact arm and the ground terminal. By using the connector provided in this application, crosstalk performance of the terminal module can be improved, to enhance signal transmission performance of the communication device.

Abstract: An electrical connector includes a housing, a first terminal module, a first ground sheet and a second ground sheet. The first terminal module includes two first conductive terminals which are a first signal terminal and a second signal terminal, respectively. Each first conductive terminal includes a first contact arm. The first ground sheet and the second ground sheet are fixed relative to the housing. The first ground sheet includes a first grounding elastic arm. The second ground sheet includes a second ground elastic arm. The first grounding elastic arm and the second grounding elastic arm are arranged separately and extend toward each other.

Abstract: A power inlet connector assembly configured for use in charging an electrical vehicle includes a housing subassembly containing a plurality of direct current (DC) electrical terminals configured to mate with corresponding direct current electrical terminals of a power outlet connector of an electrical vehicle charging device external to the electrical vehicle and a cover subassembly configured to be connected and disconnected from the housing subassembly. The cover subassembly contains electrical bus bars and alternating current (AC) electrical terminals having first ends configured to mate with corresponding AC electrical terminals of a power outlet connector of an electrical vehicle charging device. The electrical bus bars are configured to be connected and disconnected with the DC electrical terminals and the AC electrical terminals are configured to be inserted and removed from terminal cavities defined by the housing subassembly.

Abstract: The disclosure provides a mini type FAKRA connector, which includes a metal housing, a plastic housing, a pin, and multiple terminals. The plastic housing is assembled to the metal housing, and a portion structure of the metal housing and a portion structure of the plastic housing are overlapped to form a tunnel. The pin is inserted into the tunnel to fix the metal housing and the plastic housing together. The terminals penetrate the metal housing and the plastic housing.

Abstract: Provided is a connector having: a top pin group 120 having a plurality of contact pins 121, 122 aligned in a predetermined direction; and a bottom pin group having a plurality of contact pins aligned in the predetermined direction in which the bottom pin group is arranged so as to face the top pin group 120 and located on a mount substrate side. Each of the contact pins 121, 122 is at least either one of a signal pin 122 used for signaling and a ground pin 121 used for grounding, and the top pin group 120 includes a double ground configuration in which sets each including two signal pins 122 aligned between two ground pins 121 are aligned adjacent to each other in the predetermined direction.

Abstract: An electrical connector includes a housing, a first terminal module, a second terminal module and an isolation shielding plate. The housing includes a receiving slot, a first terminal module installation slot and a second terminal module installation slot. The first terminal module is partially received in the first terminal module installation slot. The first terminal module includes a first conductive terminal. The second terminal module is partially received in the second terminal module installation slot. The second terminal module includes a second conductive terminal. The isolation shielding plate is located between the first conductive terminal and the second conductive terminal. The isolation shielding plate is configured to move back and forth along a first direction to adjust the shielding position. A connector assembly having the electrical connector is also disclosed.

Abstract: A card edge connector with a latch non-removably retained to a housing so as to improve the connector's reliability. The housing has a slot elongated in a longitudinal direction and is configured to hold conductive elements. Each conductive element has a contact portion exposed in the slot configured for mating with an electronic component, and a tail portion extending out of the housing configured for surface mounting to another electronic component. The housing has an end portion at an end of the slot in the longitudinal direction. The latch is installed to and extends around three sides of the end portion of the housing. The latch has a first retention feature, and the end portion has a second retention feature. When the first retention feature fully engages the second retention feature, the latch cannot be removed from the housing in a non-destructive manner. The latch and the housing may be made of different materials for respective functions.

Abstract: A plug connector coupling, in the housing of which at least two female plug connectors are formed, are arranged such that they are rotated by 180° relative to one another about a common axis. For each female plug connector, a locking assembly is provided for each cable plug. The contact elements of both female plug connectors belong to a common contact set, in which the contact elements are guided in a crossing manner and same are arranged on opposing sides and rotated by 180° relative to one another about the common axis. Two locking arms are also arranged in an opposing manner relative to the common axis.

Abstract: A connector bracket (14) includes a first holding portion (20) and a second holding portion (21) that hold a first connector (10). The first holding portion (20) is a portion to which the first connector (10), which is provided at one end of a first electric wire (5), is attached with a rail structure, the first holding portion (20) holding the attached first connector (10) with the rail structure. The second holding portion (21) cooperates with the first holding portion (20) to hold the first connector (10). The second holding portion (21) is a band portion (34) that supports the first connector (10) by surrounding it around the periphery thereof with a band-shaped binding portion (33).

Abstract: A crimp terminal includes a core wire crimping portion, an electrical connection portion, and a coupling portion, in which the coupling portion has a bottom wall portion and side wall portions, the side wall portions have straight portions extending from the core wire crimping portion along a longitudinal direction and wide portions connecting between the straight portions and the electrical connection portion, respectively, each of the straight portions extends in a straight line along each of the side walls of the core wire crimping portion, and in a width direction, a distance between the wide portions facing each other is formed so that the distance is gradually wider from the straight portion side toward the electrical connection portion side.

Abstract: An example dynamic connector as an absorber of impacts, is provided. An example dynamic connector includes a housing configured to engage a substrate. In addition, the example dynamic connector includes a pluggable connector having at least one electrical conductor. In an instance in which the housing is engaged with the substrate, a dynamic connector may allow the pluggable connector to move relative to the substrate while maintaining electrical communication between the at least one electrical conductor and the substrate. In another example, a circuit board assembly including a dynamic connector for impact resistance is provided. Further, an example electronic device including a dynamic connector as an absorber for impacts is provided.

Abstract: A male and female power terminal assembly including a male terminal having a male contact portion including an outer contact surface and an inner surface, and a female terminal having a female contact portion including a sleeve and a finger made of an electrically conductive material. The outer contact surface is electrically connected to an inner surface of the sleeve. Further, the male terminal includes a connecting member made of an electrically conductive material which is placed inside a cylindrical hollow portion of the male terminal, and which interconnects the finger with the inner surface.

Abstract: A connector assembly comprises an elongated inner signal contact and an insulating element, wherein the insulating element includes a first cavity configured to accommodate the inner signal contact, a latching element configured to secure the inner signal contact in the first cavity, and a second cavity extending in an axial direction and configured to receive a tool for separating the latching element from the inner signal contact.