Abstract: A backplane connector includes a housing and a number of terminal modules assembled to the housing. The housing includes a base, a first side wall and a second side wall. The base, the first side wall and the second side wall jointly form a receiving space. The terminal module includes a first signal terminal and a second signal terminal. The housing includes a number of insulating protrusions integrally extending from the base. The insulating protrusions extend into the receiving space. The terminal modules are assembled in the insulating protrusions. Compared with the prior art, the insulating protrusions of the present disclosure is integrally formed with the base, thereby improving the structural strength of the housing and improving the durability of the backplane connector.

Abstract: An electrical connector includes multiple terminals fixed to an insulating body. Each terminal has a contact portion electrically connected with a mating connector, and a conducting portion located behind the contact portion. The conducting portion extends out of the insulating body and is electrically connected with a circuit board. A grounding shell wraps outside the insulating body. A shielding shell rotates relative to the insulating body between a closed position and an open position. A first end of the shielding shell is electrically connected with the grounding shell. When the shielding shell is at the closed position, a second end of the shielding shell is electrically connected with at least one grounding medium electrically connected with the circuit board. When the shielding shell is at the open position, an observation window is formed between the shielding shell and the grounding medium to expose the conducting portions of the terminals.

Abstract: A connector structure includes a first connector housing, a second connector housing accommodating the first connector housing, and a cover which restricts a leading-out direction of a wire led out from the first connector housing. The first connector housing, the second connector housing, and the cover are integrally assembled. The cover includes a cover flange, a cover hood formed on a side in the cover flange, a cover arm protruding from a side opposite to the cover hood in the cover flange, and a cover projection protruding from the side opposite to the cover hood in the cover flange and facing part of the cover arm.

Abstract: An electrical connector includes an insulative housing with a base and a mating tongue extending forwardly in a front-to-rear direction from the base, the mating tongue defining a first surface and a second surface opposite to each other. A plurality of contact strips is disposed around the outer surface of the mating tongue of the insulative housing, each contact strip is stamped from a metal sheet and defines a first contacting section exposed upon the first surface and arranged along a transverse direction perpendicular to the front-to-rear direction, and a second contacting section exposed upon the second surface and arranged along the transverse direction.

Abstract: An electrical connector includes a seat having a signal contact receiving slot and a grounding contact receiving slot, and a signal contact and a grounding contact retained therein. The seat includes a first insulating member and a second insulating member surrounding the first insulating member, wherein the grounding contact receiving slot is defined on the first insulating member, the first insulating member further includes a through hole substantially parallel to the grounding contact receiving slot, a shielding member is defined on at least the inner surfaces of the grounding contact receiving slot and the through hole, the second insulating member includes a column formed into the through hole, the signal contact receiving slot is defined on the column of the second insulating member.

Abstract: A connector having a body, at least one contact accommodated in the body with an insulator being interposed, a casing defining a housing designed to accommodate all or part of the body, and an armature placed around at least one portion of the casing, at least one portion of the body being accommodated in the portion of the casing, the armature having feet for fastening the connector to a printed circuit board, wherein the feet project beyond that portion of the casing around which the armature is placed and wherein the armature is placed in a set-in manner relative to the casing.

Abstract: An electrical connector includes an insulating housing having a receiving chamber of substantial U-shape with a top opening, an insulating body assembled to the insulating housing, a plurality of terminals disposed in the insulating body, and a shielding shell of substantial inverted-U shape with a top plate and two side plates. The shielding shell is covered on the insulating housing with the top plate covering the top opening of the receiving chamber and the side plates abutting against two opposite outsides of the receiving chamber. So the entire thickness of the electrical connector only depends on a bottom wall of the receiving chamber and the top plate of the shielding shell, and therefore, the electrical connector in this invention can realize a thinner thickness and can effectively reduce the appearance thickness of an electronic product where the electrical connector is used.

Abstract: An electrical connector assembly comprises a first connector unit and a second connector. The first connector unit comprises a first connector having an insulative housing with a plurality of contacts mounted thereon. A printed circuit board, on which the first connector is seated, defines a pair of mounting sections at opposite ends thereof and locate adjacent to the first connector. An insulative cover is attached to a first surface of the printed circuit board which is opposite to the first connector. The insulative cover forms a pair of guiding posts retained in said mounting sections and a pair of stand-off sections located at opposite ends thereof for supporting the first connector during the mating process. A metallic cover is attached to the insulative cover. The second connector defines a pair of guiding apertures at opposite ends thereof for receiving said guiding posts.

Abstract: A USB device includes a main body, a PCB fixed in the main body and a USB connector connected to the main body. The USB connector includes a shell, a USB plug and a cover. The shell defines a receiving room, a first opening and a second opening and includes an integrally formed enclosure enclosing the receiving room and a first flange outwardly protruding from the enclosure. The USB plug electrically connects to a wire group and is inserted into the shell from the first opening. The cover shields the second opening and is fixed to the shell. The cover includes a second flange engaging with the first flange to cooperatively receive the wire group and connect to the main body.

Abstract: An electrical connector includes a seat having a signal contact receiving slot and a grounding contact receiving slot, and a signal contact and a grounding contact retained therein. The seat includes a first insulating member and a second insulating member surrounding the first insulating member, wherein the grounding contact receiving slot is defined on the first insulating member, the first insulating member further includes a through hole substantially parallel to the grounding contact receiving slot, a shielding member is defined on at least the inner surfaces of the grounding contact receiving slot and the through hole, the second insulating member includes a column formed into the through hole, the signal contact receiving slot is defined on the column of the second insulating member.

Abstract: An electromagnetic shield comprises a sheet of metal having slots along an edge of the sheet to form a plurality of resilient fingers. The single sheet is bent around first and second bends axes inwardly and approximately ninety degrees to form a top planar surface and first and second side walls. The single sheet of metal is sized and dimensioned to receive a connector in between the first and second side walls and top planar surface. The fingers are bent outward with a bend radius of approximately 0.020 inches with respect to a flat surface of the sidewalls and top planar surface. The fingers apply a biasing force against a surface of a faceplate. Each of the side walls includes an elongated leg, which is interconnected with a circuit board and each of the elongated legs extends beyond a bottom edge of each of the side walls.

Abstract: A USB device includes a main body, a PCB fixed in the main body and a USB connector connected to the main body. The USB connector includes a shell, a USB plug and a cover. The shell defines a receiving room, a first opening and a second opening and includes an integrally formed enclosure enclosing the receiving room and a first flange outwardly protruding from the enclosure. The USB plug electrically connects to a wire group and is inserted into the shell from the first opening. The cover shields the second opening and is fixed to the shell. The cover includes a second flange engaging with the first flange to cooperatively receive the wire group and connect to the main body.

Abstract: A shield for a connector that can provide a card-receiving slot is disclosed. The shield includes sides that provide an enclosure. The shield includes a fastener that is held in place by a retaining notch in a bottom of the shield. The retaining notch is configured to support the fastener in place and restrain it from unintended translation or rotation.

Abstract: An metal housing comprising an electrical device includes electrical pins that protrude from the metal housing, and the metal housing formed with a compressible protrusion around the pins.

Abstract: The invention provides a connector including a body having an insulating property; a terminal group provided in the body; and a shield case having electrical conductivity. The terminal group includes a first terminal, and a second terminal, being provided adjacent to the first terminal and having higher impedance than the first terminal. The shield case includes an outer shell, configured to surround an peripheral surface of the body, and an impedance adjuster, provided at the outer shell and located adjacent to at least a portion of the second terminal and on an opposite side of the second terminal from the first terminal.

Abstract: A shielded connector. In one embodiment, the shielded connector includes: a seat, including a plurality of receiving slots, in which a shielding body is formed on at least a part of an inner surface of the receiving slot by physical-plating and an insulating paint layer is formed on the shielding body by immersing, spraying or coating, at least one conductive body disposed outside the receiving slots and connected to the shielding bodies, and at least one lead-out portion disposed adjacent to the motherboard and electrically connecting the conductive body to the motherboard; and a plurality of conductive terminals, accommodated in the receiving slots, each including a contact portion exposed at one side of the seat, a body portion extending from the contact portion into the receiving slot, and a connecting portion extending from the body portion and exposed outside the receiving slot.

Abstract: A connector system includes a first connector comprising a housing holding a plurality of contacts, a second connector comprising a housing holding a plurality of contacts, and a metal shield having walls defining a shielded chamber. The first and second connectors are configured to be mounted to a circuit board in a stacked arrangement next to one another. The first and second connectors are configured to be arranged in a shielded configuration in which the first and second connectors are positioned within the shielded chamber and mounted to the circuit board with the metal shield. The first and second connectors are also configured to be arranged in an unshielded configuration in which the first and second connectors are mounted to the circuit board without the metal shield.

Abstract: An electromagnetic interference preventing module is provided. The module includes a metal pad that is disposed on a circuit board. The metal pad includes a soldering portion and a grounding portion that are connected to each other. At least one fixing lug of a connector is soldered to the soldering portion. At least one protrusion of a grounding housing is in contact with the grounding portion, so as to electrically connect the connector with the grounding housing.

Abstract: A shield case of the invention includes a base of a generally U-shape in front view having widthwise end portions, the end portions each having a front surface and a back surface; a pair of folded-back portions, provided on the front the back surfaces of the end portions of the base and folded back backward, or alternatively provided on the back surfaces of the end portions of the base and folded back forward; a pair of side walls, extending from the folded-back portions along a length of the end portions of the base; a pair of first locking pieces, extending downward from the side walls; and a linking portion adapted to link between the side walls. The base, the side walls, and the linking portion define a body containing portion.

Abstract: The invention provides a connector wherein a highly reliable shielding performance can be realized while reducing the production cost and the size. A connector includes a shield cover configured by one metal plate. In the shield cover, a tubular portion which forms a fitting portion for a plug, mounting terminals for a printed circuit board, first contact pieces for a shield member of the plug, and second contact pieces for a case of an apparatus are integrally disposed. In the tubular portion, inner and outer double right and left side plates are disposed. The mounting terminals are configured by right and left extended portions downward projected from portions of the outer right and left side plates in rear of a front end opening of the tubular portion. The second contact pieces are configured by elastic pieces inward extended from the front end faces of the mounting terminals.

Abstract: The invention provides a connector wherein a highly reliable shielding performance can be realized while reducing the production cost and the size. A connector includes a shield cover configured by one metal plate. In the shield cover, a tubular portion which forms a fitting portion for a plug, mounting terminals for a printed circuit board, first contact pieces for a shield member of the plug, and second contact pieces for a case of an apparatus are integrally disposed. In the tubular portion, inner and outer double right and left side plates are disposed. The mounting terminals are configured by right and left extended portions downward projected from portions of the outer right and left side plates in rear of a front end opening of the tubular portion. The second contact pieces are configured by elastic pieces inward extended from the front end faces of the mounting terminals.

Abstract: An electrical connector system includes a carrier assembly and a header. The carrier assembly includes a plurality of shielded connectors and a coaxial cable terminated to each of the shielded connectors. The header includes opposed grounding plates each having ground tabs configured for attachment to a circuit board and a plurality of pins disposed between the opposed plates in a stripline configuration. The coaxial cables of the carrier assembly electrically communicate with the circuit board through a stripline configuration of pins in the header.

Abstract: An electrical connector (1) includes an insulative base (10) and a number of shielding plates retained in the insulative base. The shielding plates include a number of first and second shielding plates (30, 40) arranged in parallel arrangement. Each first shielding plate extends along a first direction and includes a number of tail portions (33) for attaching to a printed circuit board. Each second shielding plate extends along the first direction and is disposed adjacent to the first shielding plate. The second shielding plate includes a number of connecting portions (43) connected to the adjacent first shielding plate. A number of columns of pins (20) are received in the insulative base. Each column of pins arranges along the first direction and is disposed between the first shielding plate and the second shielding plate.