Abstract: An electrical connector includes an insulative housing defining a mating slot, an inner metallic shield covering the insulative housing, and an outer metallic shield enclosing the insulative housing. The insulative housing includes a first wall, a second wall and two side walls. The inner metallic shield includes a main plate attached to the first wall and two side portions attached to the two side walls. The outer metallic shield includes a main plate located on the outer side of the main plate and two plates attached to the side portions respectively. The insulative housing is provided with grooves on the second walls. The plate is provided with a hook portion fixed in the groove. The two side portions engage the two plates.

Abstract: A receptacle connector for mating with a plug connector having a mating tongue and a latch thereof, includes an insulative housing defining a mating slot extending along a longitudinal direction to receive the mating tongue of the plug connector, and an outer metallic shield defining an upper space to receive the latch of the plug connector, and a lower space communicatively below the upper space to receive the housing. A plurality of contacts are disposed in the housing to mechanically and electrically connect to the mating tongue. An inner metallic shield is attached upon the upper wall of the housing to separate the upper space and the lower space from each other in a vertical direction.

Abstract: A receptacle connector having a plurality of airflow holes positioned to avoid heat buildup inside a receptacle shell, preventing deformation to the housing of a short, high density connector during solder reflow. The airflow holes may be in a bent portion joining a top face and rear face of the shell. The receptacle connector may be mounted to a substrate, such as a printed circuit board, leaving a gap between the connector and the substrate, forming an airflow passage between the substrate and the receptacle connector, enabling heated air to reach mounting portions of terminals of the connector during soldering, but reducing heat buildup within the shell. The passage, alone or in combination with a cutout in a face of the shell, may expose terminal contacts of the receptacle connector to provide for easy inspection and rework of the solder joints between the terminal contacts and the substrate.

Abstract: An electronic device and a method for recognizing accessories that are mounted into a connector of an electronic device are provided. The electronic device includes a housing that includes a first surface that faces in the first direction and a second surface that faces in the second direction, opposite the first direction, a display that is disposed between the first surface and the second surface and is exposed through the first surface, a power supply unit that applies a voltage, and at least one processor that is electrically connected to the display, wherein: the housing includes a universal serial bus (USB) type-C connector, the connector includes a contact substrate that is electrically connected to the processor to detect the insertion of an accessory, and the power supply unit and the processor are electrically connected to a mid plate that is formed in the contact substrate.

Abstract: A connector cage that makes a spring member difficult to be broken when a mating connector is fitted. The connector cage includes a cage body that has a reception portion for receiving a mating connector therein, a partition member that partitions the reception portion in a left-right direction of the cage body, and a spring member that is arranged at a front end of the partition member in a front-rear direction, and is brought into contact with the mating connector. A first hole is formed which is a through hole extending through the cage body in an up-down direction. The spring member includes a spring member-side protruding portion which is inserted through the first hole, and is connected to the cage body.

Abstract: A cable connector assembly and the manufacturing method thereof are disclosed in the invention. The cable connector assembly includes a plug connector including a conductive module and a metal casing having a fixing and a mating section; a printed circuit board being electrically connected to the plug connector and a cable assembly which includes a wire retainer, wires, and an insulating layer; an inner casing being insert-molded onto the printed circuit board, the wire retainer, and the fixing section; a stress releasing element being insert-molded onto the insulating layer and partially onto the inner casing; and an outer casing being insert-molded onto the inner casing and partially onto the stress releasing element. The cable connector assembly is produced without the pin, no pin holes will be formed on the outer casing. The cable connector assembly is easy to produce and aesthetically pleasing and can meet stricter requirement of the client.

Abstract: An electrical receptacle connector includes a plurality of lower terminals, a lower insulator, a shielding plate, a plurality of upper terminals, an upper insulator and an outer insulator. The lower insulator partially covers the lower terminals and exposes a lower contact area of a lower contact segment of each lower terminal. The shielding plate is assembled onto the lower insulator. The upper insulator partially covers the upper terminals, exposes an upper contact area of an upper contact segment of each upper terminal, and is assembled onto the lower insulator. The outer insulator partially covers the above elements, and exposes the lower contact areas and the upper contact areas.

Abstract: A receptacle cage includes walls defining a cavity including a top wall and first and second side walls extending from the top wall to a bottom. The cavity is open at a rear to receive cabled receptacle connectors and open at a front to receive pluggable modules. A divider wall extends between the side walls and divides the cavity into upper and lower module channels receiving corresponding pluggable modules. The divider wall includes a front and a rear and has mounting fingers proximate to the rear for removably mounting the rear of the divider wall to the side walls.

Abstract: A self-locking USB filter device is disclosed that comprises at least one permanently attachable self-locking USB plug having at least one locking tooth to permanently connect the permanently attachable self-locking USB plug to a USB jack of a protected computing apparatus. The self-locking USB filter protects the protected computing apparatus by blocking unauthorized data transfer and blocks all communication unless the authenticator is authenticated by software installed in the protected computing apparatus. A method of protecting USB jacks of a computing device is also disclosed.

Abstract: A shield shell includes a housing accommodation portion and a shield member mounting portion. The shield member mounting portion is formed to be continuous to the housing accommodation portion. A shield member fixing part is provided on an outer surface of the shield member mounting portion. The shield member fixing part has an inclined shape in which a cross-section taken along an axial direction of the shield member mounting portion expands outwards from a base end side of the shield member mounting portion toward an open end side of the shield member mounting portion.

Abstract: In some examples, an apparatus includes electronic equipment and a port assembly electrically coupled to the electronic equipment. The port assembly can include a port to receive a plug as well as an electromagnetic interference (EMI) grounding member disposed on the periphery of the port assembly. The apparatus can further include a housing to securely house the equipment. The housing can include a panel with a panel opening for the port assembly. The panel opening can include a vent portion to permit air venting for the electronic equipment through the vent portion of the panel when a plug is plugged into the port.

Abstract: An electrical connector includes an insulating main housing including a main body portion that has a holding hole open rearward and a plate-shaped fitting portion that protrudes forward from the main body portion and fits to a mating connector; a shield member that covers the main housing; an insulating sub housing that is arranged in the holding hole; and a plurality of conductive terminals that include connection portions arranged on the fitting portion and terminal portions protruding from the holding hole, and are held by the sub housing. The sub housing includes a first sub housing that is inserted into the holding hole from behind in a state of holding a part of the plurality of terminals, and a second sub housing that is inserted into the holding hole from behind in a state of holding the terminals other than the part of the plurality of terminals.

Abstract: A cable connector assembly includes: a mating portion; a flat cable electrically connecting with the mating portion, the flat cable having plural wires and an outer boot enclosed the wires, the wires including a first wire and a second wire; an inner mold enclosing a part of the mating portion and a part of the flat cable; and a shielding shell enclosed the inner mold, wherein the first wire is a core wire directly enclosed by the outer boot and the second wire comprises a core wire and an insulative layer enclosing the associated core wire.

Abstract: An electrical connector assembly includes an insulative housing, a plurality of terminals retained in the housing, and a metallic shielding plate embedded within the housing. The insulative housing includes a base and a tongue portion extending forwardly from the base. The tongue portion includes a mating section and a rear step section. There are two rows of terminals. The shielding plate is disposed between the two rows of terminals. The terminals include a pair of outermost grounding terminals in a transverse direction. A grounding plate positioned upon the rear step section, is mechanically and electrically connected to at least one of the corresponding grounding terminal and the shielding plate wherein the corresponding grounding terminal and the shielding plate have corresponding extension soldered to the grounding plate.

Abstract: An electrical connector adapted for mounting to an upper surface of the printed circuit board, includes a contact module having an insulative housing with a plurality of contacts disposed therein and enclosed within an inner metallic shell, and an outer metallic shell attached to the inner shell and located between the inner shell and the printed circuit board so as to allow the raised type mating cavity which is formed by the inner shell. The contact module includes a metallic shielding plate with an oblique section. The housing forms an oblique section on the rear side to comply with the oblique section of the shielding plate wherein a receiving space is formed above a rear side of the connector and in alignment with a mating cavity of the inner shell in the front-to-back direction.

Abstract: An electrical connector includes a terminal module enclosed within a metallic shield wherein the terminal module includes an insulative housing with two rows of contacts and a metallic shielding plate therebetween. The terminal module includes a rear portion and a front portion extending forwardly from the rear portion. The shield includes a stopping wall with an opening extending therethrough in a front-to-back direction so that the rear portion of the terminal module abuts against the stopping wall while the front portion of the terminal module extends through the opening forwardly.

Abstract: Disclosed are optical receptacles for use with electronic devices. In one embodiment, the optical receptacle comprises an optical lens body for receiving and transmitting optical signals and the optical lens body comprising a front face with a recess and a total internal reflection (TIR) surface. A cover is disposed in the recess of the optical lens body for protecting a surface of the optical lens body and also provides a cleanable surface. The optical receptacle also includes a receptacle shell with an open side for housing the optical lens body. and a cover disposed in the recess of the optical lens body.

Abstract: A waterproof connector includes a housing made of an insulating resin and having a counter connector accommodating section and one or more contacts formed integrally with the housing, the housing having at least one contact adhesion generating recess that is formed in a bottom section of the counter connector accommodating section to communicate with an inside of the counter connector accommodating section and that allows an adhesion force directed to a contact-side fixed section of each of the one or more contacts to be generated at a portion of the housing in contact with the contact-side fixed section by means of water pressure occurring when the inside of the counter connector accommodating section is immersed in water.

Abstract: An electrical receptacle connector includes a terminal module, an inner metallic shell, an outer insulation frame, and an outer metallic shell. The terminal module is assembled with the inner metallic shell and the outer insulation frame, the outer metallic shell is formed on the outer insulation frame, and the outer metallic shell is in contact with the inner metallic shell. The connector is provided with the outer insulation frame so as to prevent water moist entering into the other end of the outer insulation frame from one end of the outer insulation frame having the insertion opening. In addition, the outer metallic shell is formed on the outer insulation frame to improve the structural strength of the connector. Moreover, the outer metallic shell and the inner metallic shell are soldered with each other through the grooves of the outer insulation frame.

Abstract: A connector, configured to extend a plurality of interfaces, includes a housing and a plurality of pins extending out of the housing. The housing is designed to accommodate a plurality of contacts spaced apart in sequentially numbered contact locations including HDMI contact locations designated for a HDMI port, configured to couple to at least one HDMI interface via HDMI pins of the plurality of pins; USB contact locations designated for a USB port; a power contact location designated for a power port; and a detection contact location designated for a detection port, configured to detect the types and quantities of the plurality of interfaces via a detection pin. A docking station and a connecting assembly with the connector are also provided.

Abstract: In an electrical plug type connector having an electrically conductive contact element having a contact surface, the contact surface has a microstructure.

Abstract: A staggered mounting electrical connector assembly can include a shroud and an electrical connector. The electrical connector can include a connector housing, and the shroud can be configured to be mounted to the connector housing in a staggered fashion. The shroud and the connector housing can include complementary alignment members configured to interface with each other. The alignment members can act to align mounting members defined by the shroud during the process of mounting the shroud and the connector housing to an underlying substrate, such as a printed circuit board.

Abstract: A flappable plug connector and a complementary receptacle connector are provided wherein the plug connector defining a mating tongue, is made with a pair of insert molding housings which are associated with the contacts thereof, commonly sandwiching a paddle card therebetween with a pair of power contacts exposed on two opposite lateral sides to form a sub-assembly. The corresponding receptacle connector defines a receiving cavity to receive the mating tongue of the plug connector. The plug connector defines a V-Bus clip surrounding the mating tongue for power transfer and the receptacle connector includes a pair of deflectable power contacts by two sides of the receiving cavity.

Abstract: A connector including a housing with a cable entry and a contact face presenting one or more conductors for signal transfer to associated conductors of a complementary connector. The connector includes a cable entry shield of an electro-conductive material gripping around the cable at the cable entry. The cable entry shield can for example be formed by a pin holder for holding alignment pins and the base of a locking device, jointly gripping around the cable.

Abstract: A connector (130) is provided with wires (12) including shield layers (12C), L-shaped terminal fittings (13) mounted on ends of the wires (12), a resin molded part (24) provided to include connected parts of the wires (12) and the terminal fittings (13), a first shield shell (133) configured to cover a predetermined part of the resin molded part (24) and including a through hole (33A), a wire shield connecting member (132) connected to the shield layers (12C) of the wires (12) and including a through hole (23A) and a bolt (40) configured to fasten the first shield shell (133) and the wire shield connecting member (132) by being inserted through the respective through holes (33A, 23A) and electrically connect the first shield shell (133) and the wire shield connecting member (132).

Abstract: A connector has a receiving portion which is receivable a connection member inserted rearward in a front-rear direction. The connection member has a plate-like or sheet-like shape and has terminals and a ground pattern. The connector comprises a plurality of contacts, a holding member and a conductive member. The contacts have contact points, respectively. The contact points are to be in contact with the terminals, respectively. The holding member holds the contacts. The conductive member is attached to the holding member. The conductive member has a shield connection portion which is to be in contact with the ground pattern. The shield connection portion is positioned frontward of the contact points of the contacts in the front-rear direction and is positioned outward of the contact points in a width direction perpendicular to the front-rear direction.

Abstract: An electrical connector plug having resilient contact terminals electrically connects to an electrical connector socket with a casing and two groups of engaging terminals mounted on or in the casing. The electrical connector plug has an electrically conductive housing. A coupling device extends in a longitudinal direction and has a base portion. The resilient contact terminals are mounted on the coupling device axially symmetrically arranged with each other in the longitudinal direction, each of which has a flat section and an upwardly protruding contact section. A metallic shield frame is electrically connected to and secured to the electrically conductive housing, having a frame section, a front section, and two lateral protective sections. The respective lateral protective sections have a height no less than that of the upwardly protruding contact sections of the resilient contact terminals.

Abstract: An electrical connection assembly includes a connector and a cable. The connector includes a plug having a multitude of contacts in electrical communication with the cable wires. The connector further includes a body in which a printed circuit board is inserted. The cable wires are soldered to the bonding pads of the printed circuit board which is encapsulated by an adhesive. The connector further includes a metallic shield enclosing the body and providing a path to the ground. An inner mold encapsulates the space enclosed by the metallic shield. The metallic shield is optionally formed from a pair of metallic shields cans that are crimped and laser welded. The assembly further includes a sleeve attached at a rear face of the metallic shield, an enclosure attached to the connector body, and a pair of face plates attached between the enclosure and the body.

Abstract: A connector which permits the resistance against the deformation of a shield to be increased and a method of manufacturing the connector. The shield is made up of an inner shield member disposed on the inner surface side of the shield and anouter shield member disposed on the outer surface side and, therefore, the strength of the shield can be increased by the double structure of the shield members. As a result of this, the shield is not deformed easily even in the case where an excessive external force is applied to the shield in the vertical direction or in the horizontal direction, for example, in inserting and extracting a mating connector into and out of the shield.

Abstract: A shielded, or coaxial, electrical cable assembly including a female shield connected to the outer conductor, or shield, of the cable. The female shield is configured to mate with a male shield to maintain the continuity of the shield in a connection. The male shield includes a flexible protrusion that is designed to align with and snap into an aperture defined in the female shield, thereby providing a mechanical connection between the male and female shields. The male shield also defines a flexible contact adapted to closely engage an interior surface of the female exterior shield, thereby providing an electrical connection between the male and female shields. The flexible protrusion and the flexible contact flex along axes that are generally orthogonal to one another so the flexible contact interacts with the female exterior shield substantially independently of the flexible protrusion.

Abstract: An electrical connector includes an electrically conductive front and rear shell. The front shell includes a cantilever structure extending from a rear face in an axial direction, the cantilever structure having a catch on a free end thereof. The catch mates with a retention slot located on the rear shell to latch together the front and rear shells of the electrical connector. A contact-receiving cavity formed within the front and rear shells houses an insulating sheath carrying electrical contacts. The electrical connector may further include tangs formed as an integral part of the front shell for bearing against a mating end of a mating connector. The electrical connector may include a retention latch for seating the electrical connector within a separate connector housing.

Abstract: A plug connector includes a mating tongue defining top and bottom surfaces thereon. Each surface is provided with a plurality of conductors in one row wherein the characters/categories of the conductors on the top surface are sequentially arranged to be same with those on the bottom surface with a pair of power conductors in two notches at two lateral side edges. The corresponding receptacle connector mounted upon a printed circuit board, defines a receiving cavity to receive the mating tongue therein. Opposite top and bottom rows of contacts are respectively located by upper and bottom sides of the receiving cavity and categorized essentially in a same sequence with the conductors of the plug connector for respectively connecting to the corresponding conductive pads, respectively. A pair of power contacts are located by two lateral sides of the receiving cavity to couple to the corresponding power conductor portions in the notches.

Abstract: A mini USB connector includes an electrical insulating terminal holder including an accommodation chamber and first and second tongue members at a front side relative to the accommodation chamber, a conducting terminal set including multiple conducting terminals mounted in the accommodation chamber and arranged in three sets, and an EMI shielding shell surrounding the electrical insulating terminal holder and the conducting terminals and defining therein a mating chamber that matches with the accommodation chamber, the first tongue member and the second tongue member to constitute first, second and third insertion spaces respectively for the insertion of different types of electronic cards or electrical connectors.

Abstract: A cage is provided for a receptacle assembly that includes a receptacle connector. The cage includes a body having an upper wall, a lower wall, and side walls that extend from the upper wall to the lower wall. The body has a lower side along which the lower wall extends, a front end, and an internal compartment. The internal compartment is configured to hold the receptacle connector therein. The internal compartment is configured to receive a pluggable module therein through the front end. The cage is configured to be mounted to a printed circuit along the lower side. The lower side includes a connector opening. An electromagnetic interference (EMI) absorber extends over at least a portion of the lower wall. The EMI absorber is configured to absorb EMI.

Abstract: A mini USB connector with card plug-in function includes an electrical insulating terminal holder including an accommodation chamber and first and second tongue members bilaterally disposed at a front side of the accommodation chamber, a conducting terminal set including multiple conducting terminals mounted in the accommodation chamber and arranged in three sets, and an EMI shielding shell surrounding the electrical insulating terminal holder and the conducting terminals and defining therein a mating chamber that matches with the accommodation chamber, the first tongue member and the second tongue member to constitute first, second and third insertion spaces respectively for the insertion of different types of electronic cards or electrical connectors.

Abstract: An electrical connector assembly comprises a receptacle electrical connector and a plug electrical connector. The receptacle electrical connector includes a first body having a first and a second tongues and a plurality of first terminals, the first terminals located on opposite surfaces of the first tongue and offset relative to each other. The plug electrical connector includes a second body and a third and fourth mating chambers located in the second body; a plurality of third terminals, wherein the third terminals located on upper and lower sides of the third mating chamber are offset relative to each other. The receptacle electrical connector and the plug electrical connector can mate with each other so the first terminals and the third terminals are mated with each other to transmit signals and the second tongue and the fourth mating chamber are connected to transmit power.

Abstract: An electrical connector (100) includes an insulative body (1) comprising a rear part (11), a front widened tongue (121), and a front narrowed tongue (122), a plurality of contacts (2) received in the insulative body, a metallic shell (3) enclosing the insulative body, a spacer (5) assembled to the insulative body for supporting the contacts, and a cable connected with the contacts and comprising two STP (Shielded Twisted Pair) wires (62) for high speed signal transmission, each of the two STP wires having a front section without aluminum foil. The metallic shell comprises a front shell (32) and a rear shell (33) assembled with each other, the rear shell defines a vertical blade (335) bent downwards from a top wall thereof, and the vertical blade extends downwards and is located between the front sections of the STP wires.

Abstract: A connection structure includes a shield shell enclosing a part of a plurality of wires, a braided shield collectively covering the plurality of wires, a belt-shaped clamping member sandwiching the braided shield between it and an outer surface of the shield shell so as to press the braided shield against the shield shell by a clamping force thereof, and an annular member disposed between the braided shield and the clamping member and having an elasticity to be deformed by the clamping force of the clamping member. The clamping member presses the braided shield against the shield shell through the annular member.

Abstract: Patch cords include a communications cable that has a first conductor and a second conductor that form a first differential pair, and a third conductor and a fourth conductor that form a second differential pair and a plug that is attached to the communications cable. The plug includes a housing that receives the communications cable, first through fourth plug contacts that are within the housing, and a printed circuit board. The printed circuit board includes first through fourth conductive paths that connect the respective first through fourth conductors to respective ones of the first through fourth plug contacts. The plug further includes a first conductive shield that extends above a top surface of the printed circuit board that is disposed between the first differential pair and the second differential pair.

Abstract: The invention relates to a contact set for a connection socket, with the contact set comprising at least two contact elements, with the contact elements comprising at least a first section, a second section, and a third section, with the first section comprising a connection element, with the contact elements being fixed in their relative position to each other by an isolation body in the second section, and with the third section comprising a contact area for a contact element of a plug to be inserted into the connection socket, with at least two of the contact elements comprising a compensation area at a free end of the third section, with two compensation areas being arranged such that they at least partially overlap, with an isolation film being arranged between the two compensation areas and with the isolation film and the two compensation areas being surrounded with an isolating housing.

Abstract: Connectors having improved signal paths. An illustrative embodiment of the present invention may provide a connector having a pair of first contacts adjacent to each other. Two second contacts may be located on each side of and adjacent to the pair of first contacts. The second contacts may include a front beam portion that contacts a front shield located along a front face of the connector. The front shield may in turn connect to a top shield that at least partially covers a top, sides, and back of the connector.

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 includes a base seat, a plurality of contacts fixed in the base seat, and a shielding shell surrounding the base seat. The shielding shell defines a body portion retained in the base seat, a rear wall attached a rear face of the base seat and a plurality of soldering portions extending outside of the body portion. The electrical connector defines a mounting surface, a lower edge of the rear wall is higher than the mounting surface and defines at least one board-lock portion to improve the resonant frequency.

Abstract: To make it possible to connect a flat signal-transmission medium to a plug connector efficiently and surely with a simple configuration where the number of components are reduced.

Abstract: An electrical connector (100) includes an insulative housing (1), a number of terminals (2), and a stiffener (3). The insulative housing includes a tongue portion (12) defining a number of passageways (121), a first indentation (123) opened upwardly and extending through an upper portion and a side portion of the tongue portion. One outermost terminal (20) has an upper surface and a side surface resisted against by a first mold and partly exposed outwardly via the first indentation and the opening after removal of the first mold. Also disclosed is a compression mount electrical connector including a shell and a grounding member secured to the shell and similarly configured as terminals thereof.

Abstract: An improved Universal Serial Bus (USB) connector apparatus is provided. In one embodiment, the USB connector apparatus comprises a top wall; a bottom wall having one or two openings; two side walls; an internal cavity with a rectangular cross section enclosed by the top wall, the bottom wall and the two side walls; a gasket disposed within the internal cavity; and a first connecting piece made of a conductive material and positioned at the one or more openings of the bottom wall and at least partially covering the one or more openings of the bottom wall, wherein the top wall, bottom wall, two side walls, internal cavity and gasket are configured to comply with a USB interface standard. The USB connector apparatus ensures that a bottom wall elastic sheet of the USB socket effectively contacts with the bottom wall of the USB connector, thereby providing higher grounding performance. Further, it improves on the conventional USB connector without much additional cost.

Abstract: The present invention discloses an electrical connector that includes a front zinc-alloy shell and a rear zinc-alloy shell. The front zinc-alloy shell and the rear zinc-alloy shell are made from die casting. The two shells are fitted tightly to provide shielding against electromagnetic interference. There is a cable plastic block with holding grooves to hold wires for electrical grounding and an isolation plate underneath the cable to provide electrical isolation. The holding grooves increase the connection strength of a connector cable. There is also a plastic block with an engagement hook. The engagement hook has a hook portion at one end and a curved fixing portion at the other end with an extending portion. The engagement hook provides an elastically supportive force. When a downward force is applied to the engagement hook, the curved fixing portion provides a counteracting force to press the extension portion against the front zinc-alloy shell.

Abstract: A shielded, or coaxial, electrical cable assembly including a female shield connected to the outer conductor, or shield, of the cable. The female shield is configured to mate with a male shield to maintain the continuity of the shield in a connection. The male shield includes a flexible protrusion that is designed to align with and snap into an aperture defined in the female shield, thereby providing a mechanical connection between the male and female shields. The male shield also defines a flexible contact adapted to closely engage an interior surface of the female exterior shield, thereby providing an electrical connection between the male and female shields. The flexible protrusion and the flexible contact flex along axes that are generally orthogonal to one another so the flexible contact interacts with the female exterior shield substantially independently of the flexible protrusion.

Abstract: An electrical connector includes a main housing, an inner housing assembled in the main housing, and a plurality of conductive terminals of which each has a fastening arm molded in the inner housing, a contact arm and a touching arm perpendicular to the contact arm. The contact arms are apart arranged along a transverse direction in front of the inner housing. The touching arms are apart arranged along a longitudinal direction at one side of the inner housing. In use, the touching arms of the conductive terminals are elastically against and further pressed downward by a circuit board to realize electrical connection with the circuit board. It is rather short-time and convenient for mounting the circuit board to the electrical connector. Moreover, the touching arms of the conductive terminals are easily removed from the circuit board for the convenience of replacing the electrical connector when it doesn't work.

Abstract: An electrical connector includes an insulative housing defining a receiving space (110), a number of contacts retained in the insulative housing, a cable (6) electrically connected with the contacts, and a shielding member (5) enclosing on the insulative housing to form a cavity (120). The contacts comprise a set of first contacts (2) and a set of second contacts (3), each of the first and second contacts having a contacting portion and a tail portion. The cavity has a smaller length than the receiving space along a transverse direction, the cavity is stacked on one side of the receiving space along an up-to-down direction, the cavity has a lateral boundary coplanar with the receiving space, the second contacts are received in the receiving space, and the first contacts are retained in the cavity for transmitting high speed signal.