Abstract: A stacked electrical connector formed by mating an upper and a lower housing having rows of cavities containing terminals is disclosed. The upper and lower housings have primary terminal assurance provided by lances integrally formed into the housings. A secondary terminal assurance system is provided to further secure the terminals within the housings. In one embodiment, secondary terminal assurance is to terminals in the upper housing by lower housing protrusions and to terminals in the lower housing by a hinge. In another embodiment, secondary terminal assurance is provided to terminals in the upper and lower housing by upper and lower protrusions of a lock plate.

Abstract: A stacked electrical connector (1) includes an insulative housing (2) and a number of contacts (3) retained in the insulative housing (2). The insulative housing (2) includes a first housing (21) and a second housing (22) arranged in an up-to-down direction. The first housing (21) defining a number of inserting ports (213) recessed from a front end thereof. The second housing (22) defines a receiving space (224) to receive a standard USB 2.0 B type plug. The contacts (3) include a number of first contacts (31) retained in the first housing (21) and a number of second contacts (32) retained in the second housing (22). Each first contact (31) has a first contact portion (311) extending into the inserting port (213). Each second contact (32) has a second contact portion (321) and a second soldering portion (324) being arranged in a row in a level direction.

Abstract: A card edge connector assembly includes a first connector comprising a first insulative housing defining a first central slot expanding along a transverse direction and a pair of first side arms disposed at opposite ends thereof. A plurality of first terminals are arranged at opposite sides of the first central slot. A second connector stacked with the first connector includes a second insulative housing defining a second central slot expanding along the transverse direction and a pair of second side arms disposed at opposite ends thereof. A plurality of second terminals are arranged at opposite sides of the second central slot. An ejecting device has a first and a second ejecting portions thereon for respectively projecting into the first and second central slots, therefore the ejecting device can release two cards at one time.

Abstract: A USB connector includes an electrically insulative housing having a first connection member holding a first terminal set and a second connection member holding a second terminal set, the first and second terminal set each include fixed terminals and springy terminals arranged in four rows, the rear bonding end pieces of the fixed terminals and the springy terminals being respectively bonded to eighteen through holes of a circuit board that are arranged in four rows in such a manner that the first row and the last row each include five through holes and the other two rows each include four through holes; the rear bonding end pieces of the fixed terminals of the second terminal set being disposed in front of the rear bonding end pieces of the springy terminals of the second terminal set.

Abstract: An integrated connecting port module is suitable for an adapter having one terminal which is a High Definition Multimedia Interface (HDMI) adapting port and the other terminal which is a Digital Visual Interface (DVI) adapting port. The integrated connecting port module includes a case, an HDMI port and at least one expansion port. The case has a width not smaller than that of the DVI adapting port. The HDMI port and the expansion port are installed on the case and are stacked. An electronic device including the integrated connecting port module is also disclosed.

Abstract: An electrical connector (100) includes an insulative housing (40) and a terminal module (10) retained in the insulative housing and configured with a selected terminal (11), a determined terminal (12) and a specific terminal (13) molded within a dielectric wafer (2). A coupling lead-frame (3) is disposed onto a surface of the dielectric wafer and has its main portion (3a) parallel and aligned with the specific terminal. The coupling lead-frame includes one pin leg (311) crossing over the determined terminal and having a physical and electrical engagement with the selected terminal so as to establish an electrical coupling between the selected terminal and the specific terminal.

Abstract: An electrical card connector (1) for receiving a card, includes an insulating housing (10) receiving a plurality of terminals (4), a shell (11) mounting on the insulating housing defining a guiding space (14) and receiving a guiding portion (34) to guiding the card moving in the guiding space, and an ejecting mechanism (6) assembled on the insulating housing. The ejecting mechanism includes an ejecting plate (63) for ejecting the card from the guiding space, an operation portion (66) and a lever member (62) connecting the operation and the ejecting plate. The lever member forms a center point as the center of rotation thereof, and the center point is outside the guiding space.

Abstract: An electrical connector includes a housing and a lead frame held by the housing. The lead frame includes a terminal extending along a length between a mating end portion and a mounting end portion. The terminal is at least partially surrounded by a dielectric core extending a length along at least a portion of the length of the terminal. The dielectric core is metallized such that the core is at least partially surrounded by an electrically conductive shell.

Abstract: A cassette includes a housing having a plurality of plug cavities configure to receive plugs therein, and a contact subassembly received in the housing. The contact subassembly has a circuit board arid a plurality of contacts coupled to the circuit board, with the contacts being arranged in contact sets that are received in different plug cavities to mate with different ones of the plugs. The cassette also includes a connectivity sensor coupled to the housing. The connectivity sensor is electrically connected to the circuit board of the contact Subassembly, and the connectivity sensor has a plurality of sensor pads configured to interface with sensor probes of the plugs when the plugs are loaded into the plug cavities.

Abstract: A cassette includes a housing having a front and a rear. The housing has a plurality of plug cavities open at the front for receiving plugs therein, and the housing has a rear chamber open to the plug cavities. The cassette also includes a contact subassembly having a circuit board and a plurality of contacts arranged in contact sets coupled to the circuit board. Each contact set is configured to mate with a corresponding plug, where the contact subassembly is loaded into the rear chamber such that the contact sets are received in different corresponding plug cavities. The circuit board is oriented generally parallel to the front of the housing when the contact subassembly is loaded into the rear chamber.

Abstract: A stacked card connector (100) includes a first electrical card connector (1), a second electrical card connector (2) positioned under the first electrical card connector, a retaining member (4) provided on the second card connector and a converting mechanism plate (3) received in the retaining member. The first card connector comprises a first insulating housing (12) and a plurality of first terminals (13) received in the first insulating housing. The second card connector (2) includes a second insulating housing (22) received a plurality of second terminals (23). The first terminal comprises a vertical portion (132), the second terminal comprises a tail portion (232) arranged in a line with the vertical portions of the first terminal. The converting plate comprises a plurality of third terminals (32) electrically connecting with the first and the second terminals.

Abstract: An advanced modular plug connector assembly incorporating an insert assembly disposed in the rear portion of the connector housing. In one embodiment, the connector has a plurality of ports in multi-row configuration, and the insert assembly includes a substrate adapted to receive one or more electronic components such as choke coils, transformers, or other signal conditioning elements or magnetics. The substrate also interfaces with the conductors of two modular ports of the connector, and is removable from the housing such that an insert assembly of a different electronics or terminal configuration can be substituted therefor. In this fashion, the connector can be configured to a plurality of different standards (e.g., Gigabit Ethernet and 10/100). In yet another embodiment, the connector assembly comprises a plurality of light sources (e.g., LEDs) received within the housing. Methods for manufacturing the aforementioned embodiments are also disclosed.

Abstract: A contact sub-assembly is provided for an electrical connector. The contact sub-assembly includes a base configured for mounting to a mating component. The base includes a pair of opposite side surfaces. A pair of separate contact support members are mounted on the base. Each contact support member holds a separate set of electrical contacts. Each contact support member includes a mounting portion engaged with a corresponding one of the side surfaces of the base such that a portion of the base extends between the mounting portions of the contact support members. The sets of electrical contacts held by the contact support members cooperate to define a mating interface for a mating connector.

Abstract: A modular jack assembly (100) for being mounted to a mother board includes an insulative element (10) and an electrical unit (20) mounted to the insulative element. The electrical unit has a housing (21), a terminal module (23) assembled to the housing, a daughter board (27) attached to a side portion of the housing, a LED (Light Emitting Diode) (271) disposed on the daughter board and a connecting module (25) mounted bellow the housing. The connecting module has a base (251) and a mating portion (259) extending from the base, a number of pins (250) assembled to the base, and a number of contacts (257) located to the mating portion and mounted to the mother board. The contacts electrically connect with the LED by electrically connecting to the pins.

Abstract: A mounting socket includes an insulating socket body provided with a card insertion recess, a plurality of first terminal receiving openings and a plurality of second terminal receiving openings. The card insertion recess extends over a portion of the socket body provided with the second terminal receiving openings. The first terminal receiving openings are provided in a remainder of the socket body. Memory card connecting terminals are arranged in the first terminal receiving openings and extend above an upper surface of the socket body. Subscriber identification module card connecting terminals are arranged in the second terminal receiving openings and extend into the card insertion recess. A metal separating plate substantially covers the subscriber identification module card connecting terminals and defines a top surface of the card insertion recess. A metal card housing substantially covers the memory card connecting terminals.

Abstract: An electrical card connector assembly (100) comprising: a first electrical card connector (1); a second electrical card connector (2) disposed below the first electrical card connector; a third electrical card connector (3); a fourth electrical card connector (4) arranged abreast with the third electrical card connector; a PCB (5) defining an upper surface (50) and a lower surface (51), the upper and lower surface having a plurality of traces, respectively; wherein the combined first and second card connector are disposed on the upper surface (50) of the PCB and electrically connected with the corresponding traces of the upper surface, and the third and fourth electrical card connector are arranged abreast on the lower surface of the PCB (5) and electrically connecting with the corresponding traces of the lower surface (51).

Abstract: A telecommunications device comprising a faceplate including at least two adjacent jack receptacles, the two adjacent jack receptacles positioned vertically and horizontally offset to each other and a jack mounted in at least one of the two jack receptacles, the jack defining a port in the front end for receiving a plug, the jack also defining spring contacts within the port for making electrical contact with the plug, the jack including insulation displacement contacts electrically connected to the spring contacts, the insulation displacement contacts configured to establish electrical contact with conductors of a cable. A cap manufactured of a material configured to minimize transmission of electrical signal away from its intended path fits about the jack to cover at least a portion of the outer surface defined by the insulation displacement contacts.

Abstract: A connector system includes an upper electrical connector having a housing that defines an open bottomed cavity defining a cavity envelope and that defines a mating interface for a mating connector. The upper electrical connector further has contacts mounted to the housing and extending along the mating interface. The connector system includes a first lower electrical connector mountable to a circuit board that has a first outer envelope adapted for fitting in the cavity envelope, and a second lower electrical connector mountable to a circuit board that has a second outer envelope adapted for fitting in the cavity envelope. The upper electrical connector is separately mountable to the circuit board over each of the first lower electrical connector and the second lower electrical connector. Optionally, the upper electrical connector may be mountable over only one of the first lower electrical connector and the second lower electrical connector at a time.

Abstract: A stacked electrical connector includes an upper mating port, a lower mating port, an insulative separate portion separating the upper and the lower mating ports, and an additional metal shell covering the separate portion. The upper and lower mating ports include first and second metal shells, respectively. The additional metal shell includes a main body shielding a front surface of the separate portion and a pair of side walls extending backwardly from the main body to abut against the opposite walls. At least one side wall includes a lower bending portion attached to the second metal shell in order to form a much larger grounding area for Electromagnetic Interference (EMI) protection.

Abstract: A stacked electrical connector includes a front mating face, an insulative housing comprising and a plurality of contacts. The insulative housing has a first housing and a second housing arranged in an up-to-down direction. The first housing defines a plurality of inserting ports. The second housing defines a receiving space. The contacts include a plurality of first contacts and second contacts. The first contacts each has a first contact portion extending into the inserting port and a first soldering tail extending out of the insulative housing downwardly. The second contacts each has a second contact portion extending into the receiving space and a second soldering tail extending out of the insulative housing downwardly. All the first soldering tails are arranged closer to the mating face than the second soldering tails.

Abstract: A card connector comprises an insulating housing comprising a base and a plurality of tongue portions extending from the base; a shell covering the insulating housing; a plurality of contacts arranged in upper and lower line each retained on the housing; the contacts each comprising a contacting portion extending into the mating portion, a containing portion secured in the housing, and a soldering portion extending behind the housing; a spacer and a Printed Circuit Board (PCB) each mounted on the insulating housing and the soldering portion of the contacts each receiving in the spacer and the PCB; the distance between the soldering portions of the upper and the lower contacts is smaller than that of the containing portions.

Abstract: A stacked card connector (100) adaptor for receiving cards includes a first electrical card connector (1), a second electrical card connector (2) under the first electrical card connector and a retaining member (4) integral with the second insulating housing. The first card connector includes a first insulating housing (12) received a plurality of first terminals (13). The second card connector includes a second insulating housing (22) received a plurality of second terminals (23). The retaining member defines a plurality of slots (41), said first and second terminals partially passing through the slots.

Abstract: A modular jack assembly for being mounted on a mother board (4) and engaging with a mating plug. The modular jack includes a terminal module (3) having a base element (310) and a power over ethernet assembly (33) mounted to the base element. The base element defines a number of terminal slots (3132) and has a number of connecting terminals (35) mounted thereto. Each connecting terminal has a first end (351) exposed at a side of the base element and a second end (352) connected with the power over ethernet assembly.

Abstract: A connector assembly includes a connector body having a top surface with a predetermined width and a first and a second two side walls, the first two side walls having two grooves; and a metal shield assembly coupled to the top surface of the connector body comprising a base plate extending transversely, two bar members extending downwardly from the base plate engaged within the grooves of the first two side walls of the connector body and symmetrically arranged with a predetermined width approximately equal to the width of the top surface of the connector body, two tab members formed on the bar members being resiliently biased to engage the first side walls of the connector body, and at least one elastic leg member extending from the base plate in a tilted manner and bending toward one side to form the contact.

Abstract: An electrical connector includes an insulating housing defining a receiving cavity opening forwards for receiving a mating plug in a mating direction and a mounting face, a plurality of contacts retained in the insulating hosing and having contacting portions projecting into the cavity, and a clip member retained in a rear portion of the housing and having a connecting portion and a pair of resilient arms extending from two opposite ends of the connecting portion. The two resilient arms and the connecting portion each define a clamping portion respectively to retain the mating plug in the receiving cavity.

Abstract: The terminal portions 222a, 222b of the contacts having the contact portions 221a, 221b belonging to (2n/2)-th contact portion tier 2-21 are arranged so as to be alternately allocated to the first terminal portion tier 1-22 and the second terminal portion tier 2-22.

Abstract: A receptacle connector assembly comprises an insulative housing, two sets of first contact pins, two sets of second contact pins, a metal contact and a metal shell. The first and the second contact pin respectively comply with specification of USB 3.0 and USB 2.0 and transmit data stability at high transmission rate.

Abstract: An electrical connector (100) mounted on a printed circuit board (200), the electrical connector includes an insulative housing (1) having a number of conductive members (32) and a LED device (2) disposed therein. Each conductive member includes a conductive pad (321) electrically connected with the printed circuit board. The LED device includes a LED (21) and a number of tail portions (221, 222) electrically interconnected with the LED. The tail portions are soldered on the conductive pads of the conductive members.

Abstract: A multiport connector which includes a housing having at least two aligned compartments, each compartment being structured and arranged to receive respective plugs. A multilayer printed wiring board separates the two compartments, the printed wiring board having circuit patterns on opposite sides of opposed non-conductive layers and a metal shielding layer intermediate the non-conductive layers. A first plurality of conductive contact fingers is disposed in one of the compartments, the first plurality of fingers having first portions for making electrical contact with one of the plugs and second portions for making contact with the circuit pattern on one of the non-conductive layers of the multilayer printed wiring board.

Abstract: A card edge connector for connecting a daughter board to a mother board, includes an insulative housing defining a front mating face, a top portion, a bottom portion opposite to the top portion, and a central slot recessed from the mating face between the top portion and the bottom portion to receive the daughter board, a plurality of terminals retained in the insulative housing, and a spacer disposed under the insulative housing. The spacer having a preselected height and a mounting surface toward the mother board. The spacer and the bottom portion of the insulative housing are assembled by snap-fastening.

Abstract: The present invention provides a connector interface comprising a connector socket interface and a connector plug interface, the connector socket interface comprising metal shell, insulator, band-shaped recess provided on said insulator and metal contacts and the connector plug interface comprising metal shell, insulator, and band-shaped protrusion provided on said insulator and metal contacts, said connector socket interface and said connector plug interface being able to be coupled together, wherein: said connector socket interface has a plurality of band-shaped recesses and said connector plug interface has a plurality of band-shaped protrusions. In a connector interface with the same number of metal pieces according to an embodiment of the present invention, the footprint of the coupling part is reduced, the footprint per pair of contacts is reduced, and the objective of increasing the pin density of the contacts in a connector is achieved.

Abstract: An electrical connector includes an insulative housing having a front mating face, a base portion, a mating portion protruding forwardly from the base portion and a number of passageways recessed rearward from the front mating face, the housing defining a number of blocks on a rear side thereof, the blocks each having an abutting face on a lower end thereof; a number of first contacts received in the passageways respectively and each including a contacting portion exposed in the passageway to mate with a corresponding mating connector, a level retaining arm fixed in the passageway and defining a front end connecting with the contacting portion and a rear end opposite to the front end, and a vertical mounting portion extending downwardly from a rear end of the retaining arm, the vertical mounting portion including a soldering portion to be soldered onto a printed circuit board and a protrusion tab extending laterally to have a larger width than that of the soldering portion, the protrusion tab abutting against

Abstract: The dial module includes: a sheet-shaped dial having a design part on a surface of the dial; a sheet-shaped light source fixed to a back surface of the dial for illuminating the design part; and a flexible printed circuit fixed to a back surface of the light source. The dial module thus constructed enables to reduce the number of components, to facilitate assembly of a meter which employs the dial module therein, to improve the productivity, and to reduce the cost.

Abstract: A universal serial bus (USB) connector includes a first sidewall defining at least one external USB socket for connecting to an external USB device of a host computer. A second sidewall defining at least one internal USB socket for connecting to an internal USB device of the host computer. A plurality of signal pins are connected to a motherboard of the host computer, and capable of connecting the at least one external USB device and the at least one internal USB device with the motherboard.

Abstract: This invention discloses a stackable connector assembly, which includes a first connector, a second connector, a shielding member, a contact member, and a ground member. The second connector is placed above the first connector. The shielding member is covered on the first connector. The contact member is used for connecting the shielding member and the ground member. This structure can reduce the electromagnetic radiation from the first connector.

Abstract: An electrical connector assembly includes a header and a receptacle mateable with the header. The header includes a receiving space, a number of header contacts and a header ground shield located between the header contacts in adjacent two columns. The receptacle includes a number of contact modules to be received in the receiving space. At least one of the contact modules includes an insulator, a receptacle ground shield fixed in the insulator and a plurality of receptacle contacts for mating with the header contacts. A mating portion of the insulator includes a supporting rib resisting against the header ground shield in order to enhance mating force between the header ground shield and the receptacle ground shield when the receptacle is inserted into the receiving space of the header.

Abstract: A connector system includes an upper electrical connector having a housing that defines an open bottomed cavity defining a cavity envelope and that defines a mating interface for a mating connector. The upper electrical connector further has contacts mounted to the housing and extending along the mating interface. The connector system includes a first lower electrical connector mountable to a circuit board that has a first outer envelope adapted for fitting in the cavity envelope, and a second lower electrical connector mountable to a circuit board that has a second outer envelope adapted for fitting in the cavity envelope. The upper electrical connector is separately mountable to the circuit board over each of the first lower electrical connector and the second lower electrical connector.

Abstract: A connector module that is mounted on a motherboard and is configured to realize connection between a cable side connector and the motherboard is disclosed. The connector module includes a printed circuit board, plural substrate side connectors that are mounted on the front surface of the printed circuit board and arranged into plural rows with differing heights, and a mounting connector that is mounted on the rear surface of the printed circuit board. At least one of the substrate side connectors is connected to the cable side connector. The mounting connector is engaged with and connected to a motherboard side connector that is mounted on the motherboard. The printed circuit board includes a pattern that is configured to realize electrical connection between the substrate side connectors and the mounting connector.

Abstract: A stacked electrical connector formed by mating an upper and a lower housing having rows of cavities containing terminals is disclosed. The upper and lower housings have primary terminal assurance provided by lances integrally formed into the housings. A secondary terminal assurance system is provided to further secure the terminals within the housings. In one embodiment, secondary terminal assurance is to terminals in the upper housing by lower housing protrusions and to terminals in the lower housing by a hinge. In another embodiment, secondary terminal assurance is provided to terminals in the upper and lower housing by upper and lower protrusions of a lock plate.

Abstract: A composite connector includes an insulating base, an S/PDIF connector and a Display port connector. The insulating base is formed with a first accommodating trough and a second accommodating trough adjacent to the first accommodating trough. The S/PDIF connector is partially accommodated in the first accommodating trough. The Display port connector is accommodated in the second accommodating trough. The first accommodating trough and the second accommodating trough are arranged vertically. The present composite connector has an effect of saving space.

Abstract: A plug-type connector includes a connector main body having a first end formed into a plug portion and an opposite second end formed into a pull portion; a pinch unit movably coupled to the pull portion, and having at least a vertical plate corresponding to an end face of the pull portion and a pinch plate perpendicularly extended from the vertical plate and corresponding to a back face of the pull portion; and an elastic element located between the back face of the pull portion and the pinch plate. Two plug-type connectors can be plugged in a two-leveled housing back to back. The connector main bodies are normally firmly connected to the housing by the pinch units, and any one of the two connector main bodies can be easily removed from the housing simply by pulling the pinch unit thereof without being interfered by the other pinch unit.

Abstract: A multi-port connector having DisplayPort and HDMI connector includes a seat body, a DisplayPort, an HDMI connector, a sealing lid and an outer casing. A first slot and a second slot are respectively arranged on the seat body. At back of the seat body, there is a recessing part, at upper portion of which an assembling opening communicated to the first slot is arranged. A plurality of slots are arranged on a wall surface of the recessing part. The DisplayPort is assembled in the first slot, while the HDMI connector is assembled in the second slot. The sealing lid is assembled to the recessing part. A protruding portion arranged at the sealing lid is assembled to the assembling opening. On a wall surface of the sealing lid, there are a plurality of striping ribs snapped into the slots. The outer casing externally fitted to the seat body is arranged a first perforation and a second perforation at front side face thereof.

Abstract: A double visual-interface socket compliant with socket design rules set forth in the Digital Visual Interface standard comprises: a lower socket unit including plural L-shaped terminal pins; an upper socket unit disposed above the lower socket unit and including plural terminal pins; an adapter module including plural L-shaped pins arranged in rows; and a circuit board having plural terminal guide holes and plural extension guide holes. The terminal guide holes are inserted by, soldered to, and therefore electrically connected with the terminal pins of the upper socket unit, respectively. The extension guide holes are electrically connected with the terminal guide holes, respectively, and are inserted by, soldered to, and therefore electrically connected with ends of the L-shaped pins of the adapter module, respectively. The opposite ends of the L-shaped pins of the adapter module are substantially aligned with bottom ends of the L-shaped terminal pins of the lower socket unit.

Abstract: Modular electrical jack connector system comprising at least one jack connector housing and at least one therein inserted jack connector subassembly wherein each jack connector housing comprises a front coupling side having at least two openings which openings are disposed one above the other to receive a variety of electrical plug connectors through the front coupling side and an oppositely disposed rear side for insertion of at least one jack connector subassembly wherein further each jack connector subassembly comprises a longitudinal strip-like carrier having a substantially right-angled profile and further on the upper side and on the lower side respectively a series of extrusion-coated or injection-molded jack terminals which at a front end of the strip-like carrier form uncoated, bent-back cantilevered contact portions.

Abstract: A card connector (100) includes a first housing (1), a second housing (2) stacked with the first housing, and a pair of standoffs (7). The first housing includes a first shell (10) having a first main body (11) comprising a pair of clasps (15). The second housing includes a second shell (20) having a second main body (22) and a pair of side walls (21) extending from the second main body, and each side wall has a plurality of elastic pieces (210, 211, 212). The standoffs mounted on opposite lateral sides of the first shell and the second shell. Each standoff comprising a fixing plate (71) and a locking piece (72) extending towards to the first shell from the fixing plate. The fixing plate has a plurality of through holes (74, 75) to assemble with corresponding elastic pieces of the second shell, and each locking piece provides with a locking hole (720) to fasten with corresponding clasps of the first shell.

Abstract: A modular jack (100) adapted for receiving a pair of mating connectors includes an insulative housing (1) having a pair of cavities (10) for receiving the corresponding mating connectors, a number of terminal modules (3) received in the cavities for electrically connecting with the mating connector, and a conductive outer shield (2) enclosing the corresponding insulative housing. The modular jack further has a detachable grounding member (7) made from conductive material and electrically connected with the conductive outer shield for grounding. The grounding member has a number of contacting plates (7121,7131,7141) extending into the corresponding cavities for connecting and grounding the corresponding mating connectors.

Abstract: A stacked card connector (100) includes a first electrical card connector (1), a second electrical card connector (2) under the first electrical card connector. The first card connector comprises a first insulating housing (12) received a plurality of first terminals (13), and the first terminals comprises a vertical portion (132). The second card connector (2) includes a second insulating housing (22) received a plurality of second terminals (24), the second terminals comprises a tail portion (242). And the tail portion of the second terminals defines at least one cutout (2420) among the tail portion (242), the distance between two adjacent vertical portions (132) being equal with the distance between two adjacent tail portions (242).

Abstract: An electrical connector has an insulative housing (10) and a number of electrical contacts (20). The insulative housing has a tongue (14, 15) defining a front face (145) and an upper side and a lower side perpendicular to the front face. The electrical contacts include a number of upper contacts (21) and lower contacts (22). The lower contacts are arranged on the lower side of the tongue and each including a contact section. The upper contacts each includes an extending section (212) arranged on the upper side of the tongue. A contact section (215) is bending from a side edge of the extending section of the upper contact and extending through a passageway (147) of the tongue for arranging on the lower side and avoiding the upper contacts shorting to a metal shell of a mating plug.

Abstract: An advanced modular plug connector assembly incorporating an insert assembly disposed in the rear portion of the connector housing. In one embodiment, the connector has a plurality of ports in multi-row configuration, and the insert assembly includes a substrate adapted to receive one or more electronic components such as choke coils, transformers, or other signal conditioning elements or magnetics. The substrate also interfaces with the conductors of two modular ports of the connector, and is removable from the housing such that an insert assembly of a different electronics or terminal configuration can be substituted therefor. In this fashion, the connector can be configured to a plurality of different standards (e.g., Gigabit Ethernet and 10/100). In yet another embodiment, the connector assembly comprises a plurality of light sources (e.g., LEDs) received within the housing. Methods for manufacturing the aforementioned embodiments are also disclosed.

Abstract: This invention discloses a stacked electrical connector including a first connector, a second connector, and a conductive casing. The first connector includes a first signal connection portion and a first group of soldering pins extending along a direction. The second connector includes a second signal connection portion and a second group of soldering pins extending along the direction. The first connector is stacked on the second connector. The conductive casing has a first opening, a second opening, and a third opening. The conductive casing covers the first connector and the second connector. The first signal connection portion passes through the first opening, and the second signal connection portion passes through the second opening. The first group of soldering pins and the second group of soldering pins are exposed to the third opening.