Abstract: A universal serial bus connector includes an insulating housing, a plurality of first terminals, second terminals and third terminals disposed to the insulating housing, an insulating cover disposed to a rear end of the insulating housing, a shielding shell surrounding the insulating housing and the insulating cover. Each of the first terminals has a first soldering portion. Each of the second terminals has a second soldering portion. Each of the third terminals has a third soldering portion. The insulating cover defines one row of first insertion slots and one row of second insertion slots. Rear ends of the first soldering portions and the second soldering portions, and the third soldering portions are respectively inserted into the first insertion slots and the second insertion slots. The rear ends of the first soldering portions, the second soldering portions and the third soldering portions are abreast arranged in two rows.

Abstract: An application structure for an electric wave effect of transmission conductor solves a high frequency crosswalk problem through the following structures. The applicature structure includes at least one transmission conductor, and the application structure includes a first differential signal transmission conductor set, first signal transmission conductor set, second differential signal transmission conductor set, first ground transmission conductor, third differential signal transmission conductor set, second signal transmission conductor set, fourth differential signal transmission conductor set, first power source transmission conductor, second power transmission conductor and second ground transmission conductor.

Abstract: An apparatus and method for crosstalk compensation in a jack of a modular communications connector includes a flexible printed circuit board connected to jack contacts and to connections to a network cable. The flexible printed circuit board includes conductive traces arranged as one or more couplings to provide crosstalk compensation.

Abstract: An electric connector assembly is disclosed. The electric connector assembly comprises a shell, a plurality of terminals, a spacer, a support plate, a housing, and a door. The spacer comprises a plurality of first openings. The support plate comprises a plurality of second openings. The spacer is positioned on the support plate. Each of the second openings is corresponding to one of the first openings. Each of the terminals is inserted in a corresponding first hole and a corresponding second hole. The shell is fixed to the support plate. The housing comprises two opposite sides. The shell is fixed to the housing. The door is locked to the sides. A sliding mechanism slides on the sides so that the door is closed or pulled out.

Abstract: An electrical connector is provided. The connector includes a housing having a wire end and a mating end. A terminal array extends between the wire end and the mating end of the housing. The terminal array has second terminals and first terminals. Each of the second terminals and the first terminals has a wire contact positioned at the wire end of the housing and a mating contact positioned at the mating end of the housing. The wire contact of each second terminal is positioned closer to the wire end of the housing than the wire contact of each first terminal. The mating contacts of the second terminals are positioned adjacent the mating contacts of the first terminals.

Abstract: An electrical connector includes a front wire terminal and a rear wire terminal. The front wire terminal and the rear wire terminal are configured to couple to a conductor of a cable. A front signal trace is coupled to the front wire terminal. A rear signal trace is coupled to the rear wire terminal. The front signal trace is positioned adjacent to the rear signal trace. A front mating contact is coupled to the front signal trace. A rear mating contact is coupled to the rear signal trace. The front signal trace conveys an electrical signal between the front wire terminal and the front mating contact. The rear signal trace conveys an electrical signal between the rear wire terminal and the rear mating contact. An electro-mechanical compensation is positioned between the front signal trace and the rear signal trace to control crosstalk between the front signal trace and the rear signal trace.

Abstract: The present invention generally relates to communication connectors and internal components thereof. In one embodiment, the present invention is a communication jack comprising back-rotated plug interface contacts having variable cross-sectional widths. In another embodiment, the present invention is a communication jack having back-rotated plug interface contacts where at least two of the plug interface contacts have a differing beam length. In yet another embodiment, the present invention is a communication jack having back-rotated plug interface contacts where at least two of the plug interface contacts have opposing bends in a deflection zone.

Abstract: Methods and systems for providing crosstalk compensation in a jack are disclosed. According to one method, the crosstalk compensation is adapted to compensate for undesired crosstalk generated at a capacitive coupling located at a plug inserted within the jack. The method includes positioning a first capacitive coupling a first time delay away from the capacitive coupling of the plug, the first capacitive coupling having a greater magnitude and an opposite polarity as compared to the capacitive coupling of the plug. The method also includes positioning a second capacitive coupling at a second time delay from the first capacitive coupling, the second time delay corresponding to an average time delay that optimizes near end crosstalk. The second capacitive coupling has generally the same overall magnitude but an opposite polarity as compared to the first capacitive coupling, and includes two capacitive elements spaced at different time delays from the first capacitive coupling.

Abstract: An electrical connector that includes a circuit board having a board substrate that has opposite board surfaces and a thickness measured along an orientation axis that extends between the opposite board surfaces. The circuit board has associated pairs of input and output terminals and signal traces that electrically connect the associated pairs of input and output terminals. The input and output terminals being configured to communicatively coupled to mating and cable conductors, respectively. Each associated pair of input and output terminals is electrically connected through a corresponding signal trace that has a conductive path extending along the board substrate between the corresponding input and output terminals. At least two signal traces form a broadside-coupling region in which the conductive paths of the at least two signal traces are stacked along the orientation axis and spaced apart through the thickness and extend parallel to each other for a crosstalk-reducing distance.

Abstract: An electrical connector has a circuit comprising a first side; a second side; a first differential channel located between the first side and the second side and comprising a first positive differential trace and a first negative differential trace for transmitting first differential signal; a second differential channel located between the first side and the second side comprising a second positive differential trace and a second negative differential trace for transmitting second differential signal; and a plurality of mating contacts connected to the second side and comprising a first contact connected to the first positive differential trace, a second contact connected to the first negative differential trace, a third contact connected to the second positive differential trace and a sixth contact connected to the second negative differential trace, the first contact, the second contact, the third second and the sixth contact are arranged one by one.

Abstract: A communication connector including a plurality of conductors each having a plug contact region and an opposing cable conductor termination region. The plurality of conductors are arranged in respective communication pairs. The communication connector includes a coupling zone between a first conductor of a first communication pair and a second conductor of a second communication pair. The coupling zone has at least one first conductive finger connected to the first conductor and at least one second conductive finger connected to the second conductor, each of the first conductive fingers are adjacent to at least one of the second conductive fingers.

Abstract: A connector system includes a jack module mounted to a circuit board, which is connected to at least one processor. The jack module is configured to receive a plug connector having a first set of contacts spaced from a second set of contacts. The jack module includes a first contact arrangement configured to engage the first set of contacts of the plug and a second contact arrangement configured to engage the second set of contacts of the plug. The second contact arrangement is provided on a media reading interface, which may provide presence sensing. The first and second contact arrangements engage landings on the circuit board. One example jack module defines a right-angle jack.

Abstract: Communications jacks include a plurality of contacts that are configured to move between a resting position and a deflected position and at least one biasing member that is separate from the plurality of contacts that biases at least a first of the plurality of contacts towards its resting position. The jacks further include a printed circuit board that includes a first contact structure that is configured to electrically connect to the first of the plurality of contacts when the first of the plurality of contacts is in its deflected position.

Abstract: A connector system includes a pass-through connector that includes a housing with a front and a rear opposite the front. The front of the housing has a front opening, and the rear of the housing has a rear opening. The housing also has a cavity between the front opening and the rear opening. The pass-through connector also includes conductors which are held by the housing in the cavity. The system also includes a plug that is received in the cavity through the front opening. The plug has a contact holder that holds plug conductors. The contact holder has a head that is received in the cavity, and the head is configured to push contaminants from the cavity through the rear opening as the plug is loaded into the cavity.

Abstract: Communications jacks include a plurality of contacts that are configured to move between a resting position and a deflected position and at least one biasing member that is separate from the plurality of contacts that biases at least a first of the plurality of contacts towards its resting position. The jacks further include a printed circuit board that includes a first contact structure that is configured to electrically connect to the first of the plurality of contacts when the first of the plurality of contacts is in its deflected position.

Abstract: Systems and methods are disclosed that include a first registered jack and a junction coupled to the first registered jack. These systems and methods also include a first source unit connected to the junction and a first layer encasing at least part of the first registered jack, the junction, and the first source unit. In addition, these systems and methods include an o-ring preventing surrounding the first layer and a housing encasing the first layer and the o-ring.

Abstract: An electrical connector is provided in the present invention, including an insulating housing, multiple power terminals and multiple signal terminals. The insulating housing has at least one upright power receptacle body and at least one upright signal plug body parallel to the power receptacle body. Wherein the power receptacle body forms an upright power port on a front surface thereof, and the signal plug body forms at least one signal port on a front surface thereof. Each power terminal has a plate-shaped base plate, at least one spring connection end and multiple tails. The power receptacle body and the signal plug body of the present invention are designed to be upright for saving the edge space of a circuit board. Moreover, the electrical connector of the present invention also has a character of zero insertion force by controlling the length of the signal terminal and the power terminal.

Abstract: Communications connectors include a housing and a printed circuit board that is at least partially mounted in the housing that has a plurality of conductive paths that are arranged in pairs to form a plurality of differential transmission lines. These connectors further include a plurality of contacts, each of which is electrically connected to a respective one of the conductive paths of the printed circuit board. The printed circuit board further includes at least a first floating image plane that is located between a top surface and a bottom surface thereof, the floating image plane being electrically isolated from the plurality of conductive paths.

Abstract: A modular jack (100) includes an insulative housing (1), a printed circuit board assembly (3), a set of mating terminals (2) and a set of footer pins (4). The insulative housing (1) defines a mating port (16) and a mounting port (19) located behind thereof. The printed circuit board assembly are mounted in the mounting port in an oblique manner. The footer pins are directly assembled to the insulative housing for omitting an insulative carrier and reduce a process assembling the footer pins with the insulative carrier.

Abstract: A universal series bus (USB) connector including a base, a first terminal set, and a second terminal set and a method of manufacturing the universal series bus connector are provided. The first terminal set includes a pair of first differential signal terminals and a pair of second differential signal terminals, and terminals of the pair of first differential signal terminals are adjacent to each other and terminals of the pair of second differential signal terminals are adjacent to each other. Two of terminals of the second terminal set are located at two opposite sides of the pair of first differential signal terminals, and another two of the terminals of the second terminal set are located at two opposite sides of the pair of second differential signal terminals.

Abstract: A communication plug having a plug body and a plurality of contact pairs at least partially within the plug body, the contact pairs including an inherent asymmetric coupling between individual contacts of one of the contact pairs and other individual contacts of another of the contact pairs. Second asymmetric coupling elements are connected between the individual contacts of one of the contact pairs and the other individual contacts of another of the contact pairs. The second asymmetric coupling elements, when combined with the inherent asymmetric coupling, provide a balanced symmetric coupling between the individual contacts of one of the contact pairs and the other individual contacts of another of the contact pairs.

Abstract: A terminal structure has a portion that is separated and bent. A projecting section is provided for realize common use. A connector port incorporating the terminal is also provided. The connector port includes a hollow shell receiving and retaining therein an insulation housing for receiving and positioning a plurality of terminals. Further, the insulation housing has at least one detection pin arranged at one side thereof. The detection pin is engageable with an external plug connector fit therein in order to prevent shorting caused by a shell of the plug contacting the terminals of the port at the time when the connectors mate each other. Further, the insulation housing includes a plurality of clamps, which functions to clamp and position an external plug connector so as to securely retain the plug that is fit into the socket and to realize stable engagement when the connector mate each other.

Abstract: An electrical connector mountable on a printed circuit board. In one embodiment, the electrical connector comprises an insulative housing comprising one or more electronic components, a plurality of electrical conductors in signal communication with the electronic components and adapted to interface with a plug and a plurality of terminals in signal communication with the one or more electronic components. In one aspect, the plurality of terminals are adapted to interface with one or more externally mounted electronic components on the printed circuit board thereby filtering signals passing between the electrical conductors and the printed circuit board, with the externally mounted electronic components mounted within the footprint of the electrical connector. Methods of manufacture for the aforementioned electrical connector and business methods are also disclosed.

Abstract: The transmission connector includes a base, a flexible circuit board and a cover. The base has a fixing seat with bendable tongues and a receiving seat. The flexible circuit board is received in the fixing seat and the receiving seat with abutting against the tongues. The cover includes a contact seat coupled to the fixing seat and having insulation-displacement contacts (IDCs). Bottoms of the IDCs are in contact with the flexible circuit board. The tongues generate elasticity force to push the flexible circuit board, so that the flexible circuit board can keep in electric contact with the IDCs.

Abstract: An electrical connector includes a housing (10) having a receptacle (14) for insertion of a plug connector and a contact module (20) inserted into the receptacle. The contact module having an insulative part (1), a first set of terminals (21) insert molded with the insulative part and a second set of terminals (22) separately mounted to the insulative part. Each of the first and second terminals has one end (211, 221) for mounting to an exterior substrate and another free end (215, 225). The free ends of the first terminals and the free ends of second terminals substantially extending along two opposite directions, respectively.

Abstract: A lightweight radio/CD player for vehicular application includes a case and frontal interface formed of polymer based material molded to provide details to accept audio devices and radio receivers, as well as the circuit boards required for electrical control and display. The case and frontal interface are of composite structure, including an insert molded electrically conductive wire mesh screen that has been pre-formed to contour with the molding operation. The wire mesh provides shielding and grounding of the circuit boards via exposed wire mesh pads and adjacent ground clips. The PCB architecture integrally forms a resilient beam portion adjacent an edge thereof carrying a grounding pad.

Abstract: A communication jack, system using the jack, and method of fabricating the jack are disclosed. The jack includes a cavity configured to accept a communication plug to faun a communication connector. The jack includes a plurality of plug interface contacts that extend into the cavity such that a plug inserted into the cavity makes electrical contact with the plug interface contacts at plug/jack interfaces of the plug interface contacts. One or more of the plug interface contacts is formed from multiple conductive layers. The conductive layers are movable relative to each other at at least one end. A dielectric layer or flexible printed circuit board may be disposed between the conductive layers.

Abstract: A multiple contact connector comprises a plurality of terminal pieces arranged linearly in the lengthwise direction, and an insulating provided with a plurality of dividing walls extending between the terminal pieces for supporting the terminal pieces and for insulating between adjacent terminal pieces, having the insulating pieces inserted into terminal supporting spaces between the separating walls.

Abstract: The present invention generally relates to network connectors, and more particularly, to apparatuses, systems, and methods associated with network jacks having compatibility with more than one plug and corresponding plugs. In one embodiment, the present invention is a jack having multiple printed circuit boards, wherein each circuit board is used for connection to a particular style of a plug. In one embodiment, the jack according to the present invention is compatible with an RJ45 plug.

Abstract: A dual orientation connector having a connector tab with first and second major opposing sides and a plurality of electrical contacts carried by the connector tab. The plurality of contacts includes a first set of external contacts formed at the first major side and a second set of external contacts formed at the second major side. Each individual contact in the first plurality of contacts is electrically connected within the tab or body to a corresponding contact in the second plurality of contacts. In some embodiments contacts in the first and second pluralities of contacts that are directly opposite each other are coupled together. In some other embodiments, contacts in the first and second pluralities of contacts that are in a cater cornered relationship with each other are coupled together.

Abstract: A plug connector comprises a housing, a plurality of first terminals, a plurality of second terminals and a pair of side plates. The housing has a base and a tongue extending forwardly from the base. The base has a mating limit portion connecting the tongue. Each first terminal has a resilient contact portion extending out of a plate surface of the tongue. Each second terminal has a flat plate contact portion positioned along and exposed from the plate surface and positioned in front of the resilient contact portions. The pair of side plates are provided, one along each side of the tongue, and the two side plates extend along a first, for-aft, direction above the plate surface so as to help protect the resilient contact portions.

Abstract: Communications jacks include a housing having a plug aperture. A plurality of spring members extend into the plug aperture, and a plurality of plug contacts are mounted on respective ones of the spring members. The communications jack further includes a plurality of fixed contacts. Each fixed contact is configured to be in electrical contact with a respective one of the plug contacts when a plug is received within the plug aperture.

Abstract: A communication jack which includes a housing with an aperture for receiving a communication plug, and a circuit board at least partially within the housing. The circuit board includes crosstalk compensation elements. A plurality of plug interface contacts are connected to the circuit board. At least one of the plurality of plug interface contacts includes a contact element layered with at least one spring element.

Abstract: A bidirectional connector includes a hollow insulating main body, a plurality of first conductive terminals, a plurality of second conductive terminals and a circuit unit which is movably disposed within the insulating main body. The circuit unit has a circuit board that has a top face and a bottom face. The top face has a plurality of first contacts and a plurality of second contacts and the first contacts are arranged in alternative routing. Each of the first conductive terminals has a first contact portion and a second contact portion. The second contact portion selectively contacting the first and second contacts.

Abstract: An active patch panel uses small form factor plus (SFP+) connectivity with a plurality of channels extending between first and second faces of the panel. The channels connect ports on the opposing faces of the panel and are provided with additional electronic elements, such as an equalizer, a clock data recovery element, and a pre-emphasis element. A controller can be connected to the plurality of channels to provide instructions for simultaneous equalization and pre-emphasis of a plurality of cable assemblies in the same channel.

Abstract: A connector system includes a jack module mounted to a circuit board, which is connected to at least one processor. The jack module is configured to receive a plug connector having a first set of contacts spaced from a second set of contacts. The jack module includes a first contact arrangement configured to engage the first set of contacts of the plug and a second contact arrangement configured to engage the second set of contacts of the plug. The second contact arrangement is provided on a media reading interface, which may provide presence sensing. The first and second contact arrangements engage landings on the circuit board. One example jack module defines a right-angle jack.

Abstract: A universal serial bus (USB) receptacle includes a core part and a conducting layer. The core part of the USB receptacle has a plurality of signal pads on a first side of the core part. The conducting layer is disposed on a second side of the core part of the USB receptacle. The second side of the core part of the USB receptacle is opposite to the first side of the core part. An associated USB plug is also provided. The USB plug includes a core part and a conducting layer. The core part of the USB plug has a plurality of signal pads on a first side of the core part of the USB plug. The conducting layer is disposed on a second side of the core part. The second side of the core part of the USB plug is opposite to the first side of the core part.

Abstract: A connector 1 includes a wire holder 3 to which wires 7 are attached and a unit part 5 having a connection part 9 into which the wire holder is inserted to connect the wires to solderless terminals 11 arranged at the connection part. The wire holder is divided into a plurality of divided holders 13 and 15. The divided holders 13 and 15 are joined together and are inserted into the connection part.

Abstract: An electrical connector comprises an insulative housing and a plurality of conductive terminals fixed to the insulative housing. The insulative housing includes a pair of longer walls and a pair of short walls bounding a plug-receiving cavity with an insertion direction. The conductive terminals include plate portions partly embedded in inner surfaces of the longer walls and welded portions extending out of the insulative housing. The inner surface of the longer walls define Positioning grooves between every adjacent terminals. Each of the plate portion of the conductive terminal defines a contacting surface faced to the plug-receiving cavity and two side edges intersecting with the opening edge of corresponding Positioning groove. The structure of the connector contributes to an insert molding of the connector. It is convenient not only to terminal implant and but also to a precise positioning of two directions of the terminals during the insert molding process.

Abstract: A modular plug includes a plug housing having a mating end and a cable end and plug contacts at the mating end. The plug housing and the plug contacts are shaped and positioned to define an RJ-45 modular plug mating interface. The plug contacts are arranged into a first group and a second group with each of the plug contacts in the first group being electrically commoned to form a first power circuit and each of the plug contacts in the second group being electrically commoned to form a second power circuit. The first and second power circuits are terminated to different wires of a cable.

Abstract: A receptacle block defines one or more sockets at which plugs may be received. Each socket contains a first set of contacts and a second set of contacts. Each socket also includes a sensing contact that interacts with the second set of contacts to close an electrical switch. For example, the sensing contact can interact with an arm extending from one of the contacts of the second set. Closure of the switch can be detected and interpreted to indicate that a plug has been received at the respective socket.

Abstract: A network cable jack includes a printed circuit board (PCB) for balancing both inductive and capacitive coupling. Using a PCB allows compact trace paths to be formed without significantly increasing manufacturing costs. By including on each trace path two distinct inductance zones separated by a neutral zone, significant gains in degrees of freedom are achieved for designing PCB trace patterns in which a pair of inductive coupling zones jointly offset the inductive coupling caused by a specification plug and the jack contacts, both in magnitude and phase angle. Further, using distinct inductance zones offers more freedom regarding the placement of capacitive plates for use in capacitance balancing as well as the placement of terminals and insulation displacement contacts. Although the magnitude of a capacitive coupling is determined by the length of the capacitor plates parallel to current carrying traces, the approach allows capacitive and inductive coupling to be balanced independently.

Abstract: An intelligent network patch field management system is provided that includes electronic hardware, firmware, mechanical assemblies, cables, and software that provide visible and audible cues for connecting and disconnecting patch cords in an interconnect or cross-connect patching environment. Systems of the present invention also monitor patch cord connections in a network.

Abstract: A connection blade, an intermediate connection electrical connector and a connection blade assembly including the connection blade are provided. The connection blade includes an insulation board. The insulation board includes differential pair circuits thereon. The differential pair circuits include a straight pair and a cross pair. Both of the straight pair and the cross pair includes a parallel section where wire paths of the pair extend in parallel. In a region other than the parallel section, the cross pair includes a crossing section where wire paths thereof intersect with each other. In a region other than the parallel section, the straight pair includes a quasi-crossing section where wire paths thereof approach each other in non-contact manner so that the wire paths thereof have the same length and the same shape with that of the cross pair, thereby reducing difference of impedance and manufacturing cost.

Abstract: A RJ plug connector includes a plug body with a base section and a plurality of conductive contacts received in the base section. The base section defines a front mating face and a rear cavity. A latch with a lead-in is form on the top face to locking with a socket connector. The RJ connector further defines an optical fiber module which is incorporated with the latch adjacent to the lead-in and has a coupling interface at a front face of the latch. It not only can insure large capacity and high rate data transmission, but also can extend data transmission distance without loss.

Abstract: The invention provides a connector including a body and a plurality of first and second contacts embedded at least partially in the body. The body includes a main body and a tongue extending from the main body to one side in a first direction. The tongue includes a first face facing one side in a second direction, the second direction crossing the first direction. The first contacts include first contact portions. The first contact portions are embedded in the tongue in spaced relation to each other along a third direction crossing the first and second directions to be exposed from the first face of the tongue. The second contacts include second contact portions. The second contact portions are embedded in the tongue in spaced relation to each other along the third direction to be exposed from the first face of the tongue.

Abstract: The invention is a modular cable termination plug having a conductor divider having an entrant barb and a plurality of divider channels, a load bar having a plurality of through holes and a plurality of slots, and a plurality of contact terminals. Additionally, the invention may include a housing, a strain relief collar and a strain relief boot.

Abstract: In a modular structure of independent output/input socket for UPS, when UPS needs to be repaired, the bypass switch of the detachable socket is turned on, so that the input power is directly connected with power output sockets through the power input wire. The detachable socket is then removed from the UPS host, and the UPS host is sent to be repaired. Load equipment plugs do not need to be unplugged from the power output jacks one by one, and moved to the power socket on the wall. If there are not enough power sockets on the wall, then additional extension wire sockets having multi-jacks need to be utilized for electrical connection. The action of unplugging and plugging in load plugs into the different power sources can be tedious and even dangerous. The detachable output/input sockets are also replaceable with different plug adapters for use with the different power plug standards around the world.

Abstract: An electrical connector includes an insulative housing and a plurality of conductive terminals fixed in the housing, the housing includes a pair of side walls, a pair of end walls and a plug-receiving cavity with an insertion direction surrounded by an inner surfaces of the said four walls, each terminal defines a plate portion embedded in the inner surface of the side walls, and a soldering portion extends out of the housing, each plate portion defines a contacting surface facing and exposing to the plug-receiving cavity and two corners opposite to the contacting surface, the side walls of the housing define a plurality of holes through an outer surface and the holes are located between every adjacent plate portions of the conductive terminals, seen from a cross-section of the electrical connector perpendicular to the insertion direction, said two corners of each plate portion are exposed to adjacent holes.

Abstract: A forward-reverse crosstalk compensation method is provided for compensating capacitance/inductance on a printed circuit board of a connector. The method includes a forward compensation process and a reverse compensation process. The forward compensation process compensates the unbalanced capacitance in the plug of the connector by using the parallel conductive lines or wires. The reverse compensation process can be used to compensate the unbalance capacitance/inductance caused by the forward compensations in the same pair combination of the connector. In both forward compensation and reverse compensation processes, electro-magnetic fields, such as capacitors, can be formed to balance the capacitance/inductance on the printed circuit board of the connector.