The application discloses a large current transmission connector including the pallet assembly and the socket assembly. The pallet assembly includes the pallet and the guide pillar. The socket assembly includes a socket. The socket includes mounting holes and pins. The locking structure is arranged in the mounting hole. The locking structure is used for fixing the guide pillar on the socket and for conveying a current between the pallet assembly and the socket assembly. When the guide pillar and the locking structure are fixed together, the two guide pillars not only play the role of guiding, but also can carry the large current of 50 A. Thus, this connector does not need to set aside a lot of space for mounting the power supply pins. The space of the connector is saved effectively. The miniaturization trend of the connector is met.

An electrical connector includes a housing having a bottom and a wall bounding an opening adjacent the bottom, and a shell configured to encircle an outer surface of the wall. The shell may include: first shell corners configured to conform with first housing corners of the housing, second shell corners configured to be spaced apart from second housing corners of the housing in a first direction, a plurality of first portions configured to conform with the outer surface of the wall, and a plurality of second portions configured to be spaced apart from the outer surface of the wall. The first and second shell corners have a height greater than a maximum height of the housing. Such a connector may be miniaturized, yet provide for robust operation and resist unintentional demating as a result of twisting forces on a plug inserted into the connector.

An electric connector includes terminal holder including mating-connection space surrounded by holder base and two arms, insert-receiving portion defined at bottom side of holder base, mating-connection plate extended from the holder base and suspended in the mating-connection space and conducting terminals mounted in the mating-connection plate, and circuit board including plug portion inserted through the insert-receiving portion into the mating-connection space of terminal holder, two openings coupled to the arms of terminal holder, upper and lower metal terminals mounted on opposing top and bottom sides of plug portion, planar portion abutted to the bottom surface of mating-connection plate and a plurality of contacts arranged at the back side of the planar portion for the bonding of conducting terminals. Thus, the electric connector has advantages of low profile and low manufacturing cost and is practical for use in a mobile electronic device having light, thin, short and small characteristics.

A semiconductor device includes a case, a circuit substrate set in the case and having an electric circuit formed thereon, and a plurality of terminals arranged in the case by being spaced apart from each other, each terminal having a base portion electrically connected to the electric circuit in the case, and a trunk portion bent by forming a fold between the base portion and the trunk portion so as to rise from the base portion at the end of the base portion, the trunk portion having a press-fit portion formed at its distal end, wherein the fold is inclined relative to a longitudinal axis of the base portion, and wherein restitution directions in which the press-fit portions restitute from their contractions caused by press fitting are turned aside one from another between each adjacent pair of the terminals.

A direct plug device for directly plugging into a printed circuit board, the direct plug device comprising a plug element that comprises an accommodating housing and at least one pluggable, in particular spring-like, contact element accommodated at it; and a plug element receptacle which is designed to at least partially accommodate the plug element, which comprises a locking device and which can be moved relative to the plug element between a contact element-remote state and a contact element-proximal state; wherein the plug element comprises at least one pre-adjusting structure which is to be arranged at the side of the printed circuit board and which, when the plug element is placed onto the printed circuit board, can be connected to at least one corresponding pre-adjusting structure of the printed circuit board in such a way that, in the connected state, the at least one contact element is aligned with at least one correspondingly designed contact element opening of the printed circuit board; and wherein the plug element receptacle can be displaced relative to the plug element, which is placed on the circuit board in a pre-adjusted manner, from the contact element-remote state to the contact element-proximal state in such a way that thereby the locking device and the pre-adjusting structure of the plug element are commonly locked to the pre-adjusting structure of the printed circuit board.

A waterproof connector includes an upper terminal module, a shielding plate, a lower terminal module, a dielectric element, a shielding shell and an insulating housing. The shielding plate is mounted under the upper terminal module. The lower terminal module is mounted under the shielding plate. The dielectric element is integrally molded outside the upper terminal module, the shielding plate and the lower terminal module. The shielding shell surrounds the dielectric element together with the upper terminal module, the shielding plate and the lower terminal module. The insulating housing is integrally molded outside the shielding shell together with the upper terminal module, the shielding plate, the lower terminal module and the dielectric element. The insulating housing has a rear board. A bottom surface of the rear board is recessed inward to form a receiving space. The rear board opens a guiding hole extending forward to the receiving space.

An electrical connector includes an electrically conductive plastic member having positioning grooves and connecting blocks arranged continuously, a side plate on one side of each positioning groove, a concave wall on an opposite side of each positioning groove and each of two opposite sides of each connecting block and butting bumps protruded from the side plates and the concave walls, and a terminal block provided with conductive terminals and having buckle blocks bent downward from one side thereof and used to be buckled to respective positioning grooves, abutment blocks formed on the buckle blocks for abutting against respective concave wall and proximity grooves provided between the adjacent said buckle blocks or the abutment blocks for respective butting bumps to extend and abut.

An electrical connector mountable to a substrate (e.g. a Printed Circuit Board, PCB) can include a terminal housing having a front wall and an opposing back wall. An opening is provided in the front wall for receiving a plug inside the terminal housing, opposing side walls, and a top wall and an opposing bottom wall. The bottom wall has an inner surface facing the inside of the terminal housing and an outer surface facing away from the inside of the terminal housing. The outer surface (can have at least two retention pins projecting from the outer surface for being inserted into corresponding holes in the PCB. A first retention pin can be positioned on the outer surface so as to be arranged asymmetrically with respect to a second retention pin.

The present disclosure provides an electrical connector comprising a connector body, a plurality of signal terminals, and a cover. The connector body comprises a plugging slot, a cover accommodating notch, and a plurality of signal terminal slots. The plurality of the signal terminal slots is disposed between the plugging slot and the cover accommodating notch. The cover accommodating notch communicates with the plugging slot through the plurality of signal terminal slots. The cover accommodating notch comprises two opposite sidewalls. An abutting member is disposed on one side of the sidewall. A limiting block is disposed at one end of each of the sidewalls away from an end surface of the cover accommodating notch. The plurality of signal terminals are respectively disposed in the corresponding signal terminal slots. The cover is disposed in the cover accommodating notch and covers the plurality of the signal terminals.

A printed circuit board mounting arrangement, in particular for use in environments with an aggressive vibration profile such as a motor vehicle, includes a housing and a circuit board secured to a connector body by mechanical press fit pins extending through location holes on a flange formed on the connector body to the printed circuit board. The arrangement provides for a secure connection that can achieve a high IP rating.