Abstract: An electrical connector comprises an external conductive sheet, an upper internal conductive sheet, a lower internal conductive sheet and the necessary others. An insulative base is disposed within a casing and includes a top complex, a center complex, and a bottom complex in sequential connection. The upper internal conductive sheet and the lower internal conductive sheet are fixed to the insulative base. Thereafter, an improving electrical connector interface is provided.

Abstract: A universal serial bus connector includes a shielding case, an insulating main body, a first terminal group, a second terminal group and a grounding sheet. The insulating main body is accommodated and installed in the shielding case. The first terminal group is accommodated in the insulating main body. The second terminal group is accommodated in the insulating main body. The grounding sheet is fixed on the insulating main body. A surface of the shielding case has at least one bump. The bump is recessed inwards from the surface, such that the bump is electrically connected with the grounding sheet.

Abstract: A connector includes at least one contact, a ground plate formed of a metal plate of a predetermined thickness, an insulator that holds the at least one contact and the ground plate, and a metal shell that covers an outer periphery portion of the insulator, the metal shell having a window section formed facing the ground plate and having a thickness greater than the thickness of the metal plate which forms the ground plate, the ground plate having a shell fixing section formed by folding and overlapping the metal plate and located to contact the window section from inside the metal shell, a periphery of the window section of the metal shell and the shell fixing section of the ground plate being welded to each other inside the window section of the metal shell.

Abstract: A high frequency connector includes an insulator, a plurality of terminals, a shielding case and a grounding conductor. The insulator includes a tongue plate portion and a base portion. The terminals respectively have a contact portion arranged on a surface of the tongue plate portion. The contact portion is electrically connected with a docking connector. The shielding case covers outside the tongue plate portion and the base portion. A surface of the base portion is closer to the shielding case than the surface of the tongue plate portion. The grounding conductor is formed to a shielding plate and a first flat plate from a metal sheet. The shielding plate is at least partially fixed within the tongue plate portion. The first flat plate is at least partially exposed from the base portion. The shielding plate and the first flat plate are located in a region covered by the shielding case.

Abstract: An electrical connector for mating with a mating connector having a metal elastic sheet. The electrical connector includes an insulating body, a middle shielding sheet and a metal casing. The insulating body includes a base, a tongue extending forward from the base, and an upper row and a lower row of terminals. Each upper and lower row terminals has a contact portion exposed from upper and lower surfaces of the tongue respectively. The middle shielding sheet is disposed in the tongue and located between the upper row and lower row of terminals. The middle shielding sheet includes a groove exposed from a side of the tongue, for being buckled by the metal elastic sheet to stop forward displacement of the metal elastic sheet. The metal casing wraps a periphery of the insulation body to form a mating cavity, for the mating connector to be entered therein.

Abstract: An electrical connector includes a body, two rows of terminals, and a grounding sheet. The body has a base and a tongue extending forwards from the base. The two rows of terminals are disposed in the tongue. At least one row of terminals includes a differential signal terminal pair and a grounding terminal that are disposed neighboring to each other. The grounding sheet is disposed in the tongue and located between the two rows of terminals. The grounding sheet has an open slot located between the differential signal terminal pair and the grounding terminal that are in the same row.

Abstract: Electrical connector includes an insulative body, first and second terminals, shielding housing, and adhesive. The insulative body has a tongue piece and a base having first and second positioning grooves. Each of the first terminals has a first positioning part received in the insulative body, a first electrical contact part exposed from the tongue piece, and a first bonding part accommodated in a corresponding one of the first positioning grooves and protruding from the base. Each of the second terminals has a second positioning part received in the base, a second electrical contact part exposed from the tongue piece, and a second bonding part accommodated in a corresponding one of the second positioning grooves and protruding from the base. Adhesive is injected into the first and second positioning grooves to encapsulate the first bonding parts in the first positioning grooves and the second bonding parts in the second positioning grooves.

Abstract: An electrical connector comprises a body and a plurality of terminals. The body may comprise a slot, a one side wall, a plurality of spacers and a plurality of terminal grooves. The side wall is adjacent to the slot, the plurality of spacers are positioned on the side wall and arranged alongside the slot. The plurality of terminal grooves are adjacent to the side wall, the each spacer is positioned between the adjacent two terminal grooves. The plurality of terminals comprise two pairs of differential signal terminals and a ground terminal, the ground terminal is positioned between the two pairs of differential signal terminals. The two pairs of differential signal terminals and the ground terminal are received in the corresponding terminal grooves. The spacer between the each pair of differential signal terminals and the ground terminal can be partially removed.

Abstract: An electrical connector (100) includes an insulative housing (1), a number of contact terminals (2), a metal plate (3), and a metallic shell (4) enclosing the insulative housing (1). The terminals and the metal plate (3) are retained in the insulative housing (1). The insulative housing (1) includes a base portion (11) and a tongue portion (12) extending forward from the base portion (11). The contact terminal includes a contacting portion (21), a tail (22), and a connecting portion (23) connecting the contacting portion (21) and the tail (22). The tails (22) are positioned out of the insulative housing (1). The metal plate (3) has a number of positioning end portions (33). The positioning end portions (33) are soldered on a printed circuit board for grounding. The electrical connector (100) has improved electromagnetic interference effect.

Abstract: A leadframe module for an electrical connector includes a leadframe having contacts initially held together as part of the leadframe. The contacts have mating ends configured to be mated to corresponding mating contacts. The contacts having mounting ends configured to be terminated to corresponding conductors. Dielectric shells coat corresponding contacts. Outer shields are applied to corresponding dielectric shells. Each of the contacts, dielectric shells and outer shields define corresponding shielded transmission lines of the leadframe module. Optionally, a ground plate may be coupled to each of the transmission lines and electrically connected to the outer shields of the transmission lines to electrically common each of the outer shields.

Abstract: A differential signal connector includes a plurality of pairs of signal contacts, a plurality of ground contacts, and an insulating housing holding the signal contacts and the ground contacts. On a first connection side for connection to a connection partner, the ground contacts are arranged on both sides of each pair of signal contacts so that a contact array of a fixed pitch is formed. On a second connection side for connection to a board, the ground contacts are arranged spaced apart from each other in a first row, while the pairs of signal contacts, which are adjacently arranged on both sides of the ground contact on the first connection side, are arranged so as to be allocated in a second row and a third row located on both sides of the first row so that the pairs of signal contacts are arranged zigzag on the second connection side.

Abstract: An electrical connector for reducing high frequency crosstalk interferences is provided to insert with at least two mating elements. The electrical connector includes a first joint, a first signal terminal, a second joint, a second signal terminal and a ground terminal. The first joint and second joint are respectively used to be inserted by the mating elements. The first signal terminal is electrically connected with the mating element inserted within the first joint. The second signal terminal is electrically connected with the mating element inserted within the second joint. The ground terminal is electrically connected with the first joint and the second joint, and disposed between the first signal terminal and the second signal terminal. Signal flow spaces located between the ground terminal and respectively the first signal terminal and second signal terminals are used as signal flow paths for the first signal terminal and second signal terminal respectively.

Abstract: An electrical connector for mating with a plug and mounting to a printed circuit board, includes an insulative housing defining a rear base and a front mating tongue, two rows of terminals received in the insulating housing and a shielding plate interposed between said two rows of the terminals. The terminals include contacting portions exposed upon opposite surfaces of the front mating tongue and board-connecting legs extending out of the rear base for mounting to the printed circuit board. The terminals are categorized with differential pairs of signal and grounding terminals mixed up with one another for coupling to the plug. The shielding plate includes at least one grounding finger split therefrom and a grounding leg for mounting to the printed circuit board. Each grounding finger is disposed between two adjacent differential pairs and parallel to the contacting portions of said terminals.

Abstract: An improved electrical connector is provided by compensating for skew in signal conductors of a differential pair while ensuring a uniform impedance along the differential pair. Skew is equalized by regions of lower dielectric constant preferentially positioned adjacent the longer conductor of each pair. Impedance along the length of the signal conductor is equalized by a compensation portion in the first conductor that offsets for a change in impedance associated with the change in dielectric constant adjacent the longer conductor. The compensation portion may be a widening in the first conductive element relative to a nominal width of the conductive element. The skew compensation portion may be along a longer edge of the longer conductor and the impedance compensation portion may be along the shorter edge of the longer conductor.

Abstract: The invention provides a connector including a body having insulating properties, a conductive shield case surrounding the body, and a first terminal group arrayed in a line in the body. The first terminal group includes a first terminal and a second terminal. The second terminal is disposed adjacent to the first terminal and having a higher impedance than the first terminal. The shield case includes an adjacent portion that is adjacent to at least a portion of the second terminal and on an opposite side to the first terminal. At least one of the portion of the second terminal and the adjacent portion of the shield case is extended in width so as to shorten a distance between the portion of the second terminal and the adjacent portion of the shield case in accordance with an impedance difference between the first terminal and the second terminal.

Abstract: A two-piece mezzanine connector for high speed, high density signals. The connector is assembled from wafers that may be formed of identical wafer halves. The halves may have interior portions that form a channel in which a lossy member may be captured for selectively configuring the connector for high frequency performance. The lossy member may be serpentine, to both provide different spacing relative to signal and ground conductors and to provide compliance to press against ground conductors when captured between wafer halves. Instead of, or in addition to, the lossy member captured between two wafer halves, the wafer halves may each have lossy material overmolded on at least one side, so that an assembled wafer may have lossy material disposed on the outside. The wafers may have dovetail projections that are secured within dovetail channels, forming structural members of the connector.

Abstract: An electrical connector includes an insulation pedestal, an outer cover, an enhanced shell and a plurality of terminals partially embedded in the insulation pedestal. The insulation pedestal includes a main body and a tongue section. The enhanced shell includes a fixed side and a support side. The fixed side is embedded in the main body; and the tongue section is partially covered by the support side such that the support side can support the tongue section. The insulation pedestal is integratedly formed together with the terminals and the enhanced shell to strengthen the structure of the tongue section.

Abstract: A stacked connector comprises a dielectric housing comprising a first receptacle and a second receptacle, a first set of differential pairs that each include a plurality of first terminals each having a contact portion extending within the first receptacle and an extension portion, a second set of differential pairs that each include a plurality of second terminals that each have a contact portion extending within the second receptacle and an extension portion, and a shield terminal including a plate portion and two contact portions separately extending within the first receptacle and the second receptacle. The plate portion can separate the extension portions of the terminals of one differential pair from the extension portions of another differential pair.

Abstract: A connector structure includes an enclosure; a plurality of ground units arranged in the enclosure and respectively including a carrier plate and a plurality of ground terminals electrically connected to one another and associated with the carrier plate; a plurality of signal units arranged in the enclosure side by side to locate between any two adjacent ones of the ground units, and the signal units respectively including a carrier plate and a plurality of signal terminals associated with the carrier plate; and a ground connecting member connected to the carrier plates of the ground units and the signal units. With these arrangements, the connector has simple structure and can be easily assembled for use, and the ground units are connected to the ground connecting member to thereby effectively prevent electromagnetic interference during signal transmission and ensure increased transmission rate.

Abstract: An electrical connector includes a male electrical connector and a female electrical connector. The male electrical connector includes an electrical connector housing that receives a plurality of contact modules provided with first mating contacts. The female electrical connector includes an electrical connector housing that receives a plurality of contact modules provided with second mating contacts that mate with the first mating contacts. Each of the electrical connector housings has a plurality of electrically insulating plates. The electrically insulating plates extend in a plane substantially perpendicular to a plane of insertion of the contact modules into the electrical connector housings. The electrically insulating plates support at least the first mating contacts.

Abstract: An electrical connector includes a shielding cage, an insulative housing disposed within the shielding cage, at least two rows of terminals secured in the insulative housing and a metal sheet embedded in the insulative housing and disposed between the rows of terminals. An insulative housing defines a mating face and a mounting face perpendicular to the mating face. The metal sheet extends from the mating face to the mounting face and comprises at least one tail extending beyond the mounting face.

Abstract: An electrical connector includes at least two parts: a housing having a mating side (MS) and a rear side (RS) and a terminal module having a mating side and a rear side. One part includes a mounting structure and the other part includes a corresponding receiving structure for receiving the mounting structure of the other part. The mounting structure extends in a direction from the mating side to the rear side of the part and includes a cross-section perpendicular to that direction, which cross-section has an asymmetric profile.

Abstract: An interconnection system that includes a daughter card and backplane electrical connectors mounted to printed circuit boards at connector footprints. The spring rate of beam-shaped contacts in the daughter card connector increases while mating with the backplane connector so that the retention force may be greater than the insertion force. Such a change in spring rate may be achieved by positioning the beam-shaped contacts adjacent a surface of a connector housing. That surface may include a projection that aligns with the beam-shaped contact. When the connectors are unmated, the beam-shaped contact may be spaced from the projection. As the connectors begin to mate, a central portion of the beam-shaped contact may be pressed against the projection, which has the effect of shortening the beam length and increasing its stiffness.

Abstract: An orthogonal connector system for connecting a first circuit board and a second circuit board oriented orthogonally with respect to the first circuit board includes a receptacle assembly and a header assembly mated with the receptacle assembly. The receptacle assembly is connected to the first circuit board and the header assembly is connected to the second circuit board. The receptacle assembly and the header assembly both have a housing and contact modules held within the corresponding housing. Each contact module has a dielectric body and mating contacts extending from the dielectric body. The mating contacts of the receptacle assembly are directly connected to the mating contacts of the header assembly. Some of the mating contacts of the receptacle assembly define power contacts and at least some of the mating contacts of the receptacle assembly define power contacts configured to be mated with the power contacts of the receptacle assembly.

Abstract: An electrical connector (100) includes an insulating housing (240) and a number of plate wafers (200) vertically stacked behind the insulating housing (240). Each of the plate wafers (200) includes a frame (22) and a plurality of conductive contacts (23) secured by said frame (22). The conductive contacts (23) of each plate wafer (200) have press-fit portions (236) disposed along a first length. The frame (22) forms a rib (221) extending over the first length along said lower edge of the frame (22) so that a tooling (600) can press on a top face of the rib (221) when the electrical connector (100) is mounted onto the printed circuit board. The insulating housing (240) forms a plurality of engaging portions (244) extending a second length backwardly from the rear face (248) above said rib (221).

Abstract: High-speed backplane connectors systems for mounting a substrate that are capable of operating at speeds of up to at least 25 Gbps, while in some implementations also providing pin densities of at least 50 pairs of electrical connectors per inch are disclosed. Implementations of the high-speed connector systems may provide ground shields and/or ground structures that substantially encapsulate electrical connector pairs, which may be differential electrical connector pairs, in a three-dimensional manner throughout a backplane footprint, a backplane connector, and a daughtercard footprint. These encapsulating ground shields and/or ground structures prevent undesirable propagation of non-traverse, longitudinal, and higher-order modes when the high-speed backplane connector systems operates at frequencies up to at least 30 GHz.

Abstract: An electrical connector includes an insulative housing, a number of signal contacts, a number of shielding plates and a grounding member touching the shielding plates so that the shielding plates are jointly connected with each other. The shielding plates are assembled to the insulative housing and disposed between the signal contacts of adjacent columns. Each shielding plate includes a tab projecting into a base of the insulative housing. No mounting tail for establishing connection between the shielding plates and a circuit board is set on any of the shielding plates. Instead, the grounding member comprises a number of mounting tails for being connected to the circuit board so as to establish electrical connection between the shielding plates and the circuit board.

Abstract: An electrical connector system provides both electrically conductive connection and infrared coupling, and includes at least one electrically conductive member adapted to provide electrically conductive connection to another electrically conductive member, an infrared member adapted to provide infrared member coupling with another infrared member, and wherein the at least one electrically conductive member and the infrared member being held in positional relation to each other to be positioned with respect to a further electrical connector for electrically conductive connection and infrared coupling with respect thereto. A method of connecting electrical signals uses a pair of electrical connectors, each having an electrically conductive connection portion and an infrared coupling portion to provide for both electrically conductive connection and infrared coupling between the electrical connectors. The invention may be used in portable electronic equipment, including mobile phones, for example.

Abstract: In one embodiment a connector-cable assembly includes a first connector assembly at a first end of an RF cable and a second connector assembly at a second end of the cable. The connector assembly may include an RF connector and a connector module having an orientation guide and means for releasably coupling the connector module to a panel to couple the RF connector to a complementary connector positioned behind the panel. The connector module may also include a strain relief.

Abstract: A high speed connector with reduced crosstalk utilizes individual connector support frames that are assembled together to form a block of connector units. Each such unit supports a column of conductive terminals in two spaced-apart columns. The columns have differential signal terminal pairs separated from each other by larger intervening ground shields that serve as ground terminals. The ground shields are arranged in alternating fashion within the pair of columns and they are closely spaced together so as to face a differential signal terminal pair. The support frames support the ground and signal terminals utilizing radial spokes in which the spokes take the form of ribs that extend along the inner surfaces of one of the connector halves and define V-shaped air channels.

Abstract: A high speed connector with reduced crosstalk utilizes individual connector support frames that are assembled together to form a block of connector units. Each such unit supports a column of conductive terminals in two spaced-apart columns. The columns have differential signal terminal pairs separated from each other by larger intervening ground shields that serve as ground terminals. The ground shields are arranged in alternating fashion within the pair of columns and they are closely spaced together so as to define within the pair of columns, a serpentine pattern of ground shields that cooperate to act as a single “pseudo” shield within each pair of columns.

Abstract: A connector to be connected to a counterpart connector includes a circuit board having a ground layer, an insulating layer, and a first conductive layer successively stacked, the first conductive layer including a signal circuit and a ground circuit; and a second conductive layer electrically connecting the ground circuit and the ground layer, the second conductive layer being provided on a side of the counterpart connector in the ground circuit.

Abstract: Electrical connectors having improved impedance characteristics are disclosed. Such an electrical connector may include a first electrically conductive contact, and a second electrically conductive contact disposed adjacent to the first contact along a first direction. A mating end of the second contact may be offset in a second direction relative to a mating end of the first contact. Offsetting of contacts within columns of contacts provides capability for adjusting impedance and capacitance characteristics of a connector assembly.

Abstract: A high speed connector with reduced crosstalk utilizes individual connector support frames that are assembled together to form a block of connector units in a vertical arrangement. Each such unit supports an array of conductive terminals that are arranged in two spaced-apart rows. The rows have differential signal terminal pairs separated from each other by larger intervening ground shields that serve as ground terminals. The ground shields are arranged in alternating fashion within each row of terminals and they are closely spaced together so as to define within the rows of each connector unit, a horizontal serpentine pattern of ground shields that cooperate to act as a single “pseudo” shield within each pair of terminal rows.

Abstract: High-speed backplane connectors systems for mounting a substrate that are capable of operating at speeds of up to at least 25 Gbps, while in some implementations also providing pin densities of at least 50 pairs of electrical connectors per inch are disclosed. Implementations of the high-speed connector systems may provide ground shields and/or other ground structures that substantially encapsulate electrical connector pairs, which may be differential electrical connector pairs, in a three-dimensional manner throughout a backplane footprint, a backplane connector, and a daughtercard footprint. These encapsulating ground shields and/or ground structures prevent undesirable propagation of non-traverse, longitudinal, and higher-order modes when the high-speed backplane connector systems operates at frequencies up to at least 30 GHz.

Abstract: The present invention discloses an electrical connector comprising: a housing; a base body having a tongue, whose one surface is disposed with a plurality of first terminal slots and whose other surface is disposed with a plurality of second terminal slots; a first terminal assembly whose each first terminal is disposed with a leg and a contact portion perpendicular to the leg, respectively, with the legs being alternately arranged; and a second terminal assembly whose each second terminal is disposed with a leg and a contact portion perpendicular to the leg and then bending downward, respectively. For the first terminal assembly the legs of every third terminal are offset from the remaining ones. The terminals of one assembly may be e-SATA type and those of the other assembly may be USB type.

Abstract: A high speed electrical connector assembly (1) comprises a female connector (2) and a male connector (3) assembled together to be electrical connection to a printed circuit board (9). A plurality of differential pairs of signal contact (51) and a plurality pairs of ground contact (53) with the pairs of signal contacts (51) arranged therebetween are secured in the connector assembly (1). Each of the differential pairs of signal contact (51) has a first contact engaging portion (511) which is accessible from the female connector (2), and includes a second contact engaging portion (513), extending away from the first engaging portion (511) and accessible from the male connector (3). A shielding bus (10) is electrically interconnecting to at least one of the ground contact (53), and includes a shroud portion substantially enclosing the median portion of the pair of signal contacts (51).

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: A receptacle connector comprises an insulated housing, plural first contact pins, plural second contact pins and a metal casing. The first contact pin complies with a USB 3.0 interface, comprises a contact pin, a connected portion, a second contact pin and an arch and mounts parallel with the first terminal on the insulated housing. The second contact pin complies with a USB 2.0 interface, comprises a protruded end, an elongated portion and a first pin and mounts on the insulated housing. The metal casing mounts around the insulated housing. The receptacle connector transmits data steady at a high transmission rate.

Abstract: A receptacle connector comprises an insulated housing, plural first contact pins, plural second contact pins and a metal casing. The first contact pin complies with a USB 3.0 interface, comprises a contact pin, a connected portion, a second contact pin and an arch and mounts parallel with the first terminal on the insulated housing. The second contact pin complies with a USB 2.0 interface, comprises a protruded end, an elongated portion and a first pin and mounts on the insulated housing. The metal casing mounts around the insulated housing. The receptacle connector transmits data steady at a high transmission rate.

Abstract: An electrical connector having a plurality of connector units each having a pair of columns of edge coupled differential signal pairs separated by a ground shield terminal. The ground shield terminals each face a different signal pair of terminals in an adjacent column. Notwithstanding the different size and configurations of the ground and signal terminals, the terminals have mounting tail portions that are disposed in a uniform array different from the arrangement of the body portions of the terminals of the connector unit. The mounting tail portions are of a reduced length which benefit the electrical performance of the connector where it meets its supporting circuit board.