Abstract: In a connector adapted to be connected to a mating object in a first direction, a plurality of contacts arranged in a second direction intersecting the first direction. Each of the contacts includes a contacting portion to be contacted with a mating object and an intermediate portion between the contacting portion and a terminal portion. The contacts includes a plurality of paired signal contacts and a plurality of ground contacts. A combination of the paired signal contacts in one of the rows and the ground contact in the other row forms a first set. A combination of the paired signal contacts in the other row and the ground contact in the one row forms a second set. Adjacent ones of the intermediate portions in the first and the second sets are shifted in position from each other in the first direction.

Abstract: There is disclosed a balanced interconnector comprising first and second like connecting elements, each of the connecting elements comprising an elongate center section and a pair of parallel IDCs opening in substantially opposite directions, the IDCs attached substantially at right angles to and at opposite ends of the elongate center sections, each of the connecting elements lying in different parallel plains. The first and second connecting elements are arranged such that the elongate center sections are opposite one another and the IDCs of the first connecting element are not opposite the IDCs of the second connecting element. In a particular embodiment the connecting elements of adjacent pairs of connecting elements are at right angles. The positioning and geometry of the connecting elements.

Abstract: A connector is provided for simultaneously improving both the NEXT high frequency performance when low crosstalk plugs are used and the NEXT low frequency performance when high crosstalk plugs are used. The connector includes a first compensation structure provided on an inner metalized layer of the PCB at a first stage area of the PCB, and a second compensation structure, provided at a second stage area of the PCB, for increasing compensation capacitance with increasing frequency.

Abstract: An electrical connector assembly (100) comprise an insulative housing (1) defining a mating direction, a plurality of terminals (2) received in the insulative housing (1) along the mating direction, a printed circuit board (3) attached to the insulative housing (1) and electrically connected to the terminals (2) and a cable (4) comprising a plurality of conductors (40) electrically attached to the printed circuit board (3). Each terminal (2) has a mating portion (23), a tail portion (21) and an enlarged interconnecting portion (22) connecting with the mating portion (23) and the tail portion (21).

Abstract: A DIMM connector having reduced crosstalk includes ceramic particles having a high dielectric constant and/or composite fibers mixed into materials used for fabricating a connector housing of the DIMM connector.

Abstract: An electrical connector system is disclosed and may include a header connector and a receptacle connector. The contacts in the header connector may be edge-coupled to limit the level of cross-talk between adjacent signal contacts. For example, a differential signal in a first signal pair may produce a high-field in the gap between the contacts that form the signal pair, and a low-field near a second, adjacent signal pair. The contacts in the receptacle connector may be broadside-coupled and configured to receive the contacts from the header connector while minimizing signal skew. For example, the overall length of the contacts within a differential signal pair may be the same. The contacts in the connector system may include differential signal pairs, single-ended contacts, and/or ground contacts. The connector system may be devoid of any electrical shielding between the signal contacts.

Abstract: An electrical connector includes a dielectric housing having a cavity configured to receive a mating connector therein and a contact subassembly having an array of contacts. Each of the contacts define a mating interface configured to engage the mating connector, and each of the contacts have a beam portion extending downstream of the mating interface to a contact terminating end. Contact plates are arranged within the cavity, such that each of the contact plates engage a corresponding one of the contacts at the beam portion of the contacts.

Abstract: An electrical connector with improved crosstalk compensation is disclosed. By including at least one coupling with a different frequency dependency than other couplings in the connector, crosstalk compensation performance is improved over a greater frequency range. The different frequency dependency may, for example, be used to compensate for phase shifts caused by distances between compensation circuitry and the plug/jack interface. Embodiments for decreasing these distances are also disclosed.

Abstract: A wire containment cap has twisted pair slots for routing twisted wire pairs through the wire containment cap. The twisted pair slots are provided with funnel-shaped entrances to assist in routing the twisted wire pairs from a rear end of the wire containment cap toward wire slots of the wire containment cap. The wire containment cap may be provided in shielded or unshielded versions, and is adapted for use with a communication jack assembly.

Abstract: The present disclosure relates to a telecommunications jack including a housing having a port for receiving a plug. The jack also includes a plurality of contact springs adapted to make electrical contact with the plug when the plug is inserted into the port of the housing, and a plurality of wire termination contacts for terminating wires to the jack. The jack further includes a circuit board that electrically connects the contact springs to the wire termination contacts. The circuit board includes a multi-zone crosstalk compensation arrangement for reducing crosstalk at the jack.

Abstract: A network connector, it is provided with an insulation base provided in a front face thereof with a socket for insertion of a plug on a network electric line, and a gold-plating contact module is inserted in the insulation base. The gold-plating contact module has eight gold-plating contacts which are extended out of a printed circuit board. The tailing ends of the gold-plating contacts remote from the circuit board are laid out according to a sequence from a first one to an eighth one of the gold-plating contacts in the socket to form a contact area for electrically connecting a plug on a network electric line. The fourth gold-plating contact and the fifth gold-plating contact are crossed with each other at an area between the contact area and the circuit board, this forms offsetting action on positive and negative electric charges of noisy signals between the crossing area and the circuit board to enhance transmitting performance of said network connector.

Abstract: Communications connector include a first contact having a first section and a second section that are separated by a contact region, and a second contact having a first section and a second section that are separated by a contact region. These connectors also have a first output terminal that is connected to the contact region of the first contact by a first conductive path and a second output terminal that is connected to the contact region of the second contact by a second conductive path. In these connectors, the first conductive path includes a first segment that extends from the contact region of the first contact through at least a portion of the first section of the first contact and a second segment that extends from the contact region of the first contact through at least a portion of the second section of the first contact.

Abstract: The invention relates to a method and a device for transmission with reduced crosstalk in interconnections used for sending a plurality of signals, such as the interconnections made with flat multiconductor cables, or with the tracks of a printed circuit board, or inside an integrated circuit. An interconnection with four parallel transmission conductors plus a reference conductor has each of its ends connected to a termination circuit. The transmitting circuit receives at its input the signals of the four channels of the source and its output terminals are connected to the conductors of the interconnection. The receiving circuit's input terminals are connected to the conductors of the interconnection, and its four output channels are connected to the destination. The signals of the four channels of the source are sent to the four channels of the destination, without noticeable crosstalk.

Abstract: A communications connector with a flexible printed circuit board is provided. The flexible printed circuit board is electronically and mechanically connected to the plug interface contacts of the jack near the plug/jack interface, in order to provide effective crosstalk compensation. The flexible printed circuit board has fingers at one end allowing it to flex as individual plug interface contacts are depressed when a plug is installed into the jack. The flexible printed circuit board, or a flexible portion of a printed circuit board, is provided with elongated extensions for certain conductors to accommodate the connection of six-contact or eight-contact plugs to the connector.

Abstract: A lumped resistance electrical cable has a multiple twisted pair ribbon cable having first and second conductive lines and twisted and untwisted portions. In the untwisted portions, one of the conductive lines on each of the twisted pairs is formed with an electrical open. Resistor blocks having resistive elements and electrical contacts is disposed on the untwisted portions with the electrical contacts electrically coupling the resistive elements across the electrical opens in the conductive lines. Other electrical contacts in the connector couple the other conductive lines of the twisted pairs to an ground plane formed on the resistor block.

Abstract: An electrical connector includes a dielectric housing having a mating end and a cavity extending from the mating end. The cavity is configured to receive a mating connector through the mating end. The electrical connector also includes a contact sub-assembly having an array of contacts. The contact sub-assembly is received in the housing such that each of the contacts are exposed within the cavity to engage the mating connector. Each of the contacts have a beam portion and a tail portion, and each tail portion includes a base section joined to a leg at a bend. The legs extend downward from the mating interfaces in a staggered pattern to form first and second sets of legs aligned in different first and second planes.

Abstract: A network connection system for connecting computer and telephone network components, including a twisted pair cable termination connector for use with twisted pair cable, the twisted pairs being arranged within an outer cable jacket such that each twisted pair substantially occupies a cross sectional quadrant of the cable. The connector includes a pair separator having four passages arranged to substantially keep the four twisted pairs in a quadrant relationship relative to one another and in which the twisted relationship of each twisted pair is maintained substantially until the conductors are electrically terminated to their respective conductive contact member; and a mating component adapted to couple with the twisted pair cable termination connector.

Abstract: An electric connector has an insulating body, a plurality of conductive terminals installed in the insulating body. The conductive terminals have a first set of conductive terminals and a second set of conductive terminals. The first set of conductive terminals are made of different materials from the second set of conductive terminals so as to reduce the impedance between the first set of conductive terminals and the second set of conductive terminals. The electric connector can reduce impedance among conductive terminals so as to increase electric functions, because the different conductive terminals are made of different materials.

Abstract: An electrical connector that includes first and second linear arrays of electrical contacts is disclosed. The first linear array includes a first differential signal pair, a first ground contact lead adjacent to the first differential signal pair, and a second ground contact lead adjacent to the first ground contact lead. The second linear array is positioned adjacent to the first linear array, and includes a second differential signal pair, a third ground contact lead adjacent to the second differential signal pair, and a fourth ground contact lead adjacent to the third ground contact lead. The electrical connector is devoid of electrical shields between the first linear array and the second linear array.

Abstract: An electrical connector includes a housing and a plurality of terminals having a plate shape to be attached to the housing in parallel with a narrow pitch. The plurality of the terminals has holes at opposing portions thereof in a pitch direction such that opposing areas between adjacent terminals is reduced. The housing has a groove bridging over the plurality of the terminals in the pitch direction such that a space is formed between the adjacent terminals.

Abstract: A communications jack includes: a jack frame having a plug aperture; a plurality of contact wires, the contact wires having free ends that extend into the plug aperture, the free ends of the contact wires being arranged serially in side-by-side relationship; a plurality of insulation displacement connectors; a dielectric mounting substrate, the mounting substrate including a plurality of mounting locations for contact wires and a plurality of mounting locations for insulation displacement connectors; and a plurality of conductors mounted on the substrate, each of the conductors extending, defining a path, and establishing electrical connection between a contact wire mounting location and an insulation displacement connector mounting location. At least one of the conductors includes two self-coupling sections that are immediately adjacent to each other and that have identical instantaneous current direction such that the sections self-couple and cause a localized increase in inductance.

Abstract: An electrical plug is defined by a plug housing and an upper portion of a printed circuit board. The plug housing defines a region within which the upper portion of the printed circuit board is adapted to be positioned. Stepped side walls may be provided to facilitate sliding introduction and support of the upper portion of the printed circuit board. A locking structure, e.g., a deflectable locking tooth, is associated with the plug housing for engaging a locking aperture on the upper portion of the printed circuit board. A plurality of exposed contacts are provided on the upper portion of the printed circuit board that align with channels formed in the plug housing. The exposed contacts communicate with traces on the printed circuit board and are available for electrical communication with an associated jack.

Abstract: A communications jack assembly includes: a jack frame having a plug aperture; a dielectric mounting substrate attached to the jack frame; and a plurality of conductors engaged with the mounting substrate, each of the conductors including a fixed end portion mounted with the mounting substrate and a free end portion extending into the plug aperture for electrical contact with a mating plug, each of the free end portions having substantially the same profile and being substantially transversely aligned in side-by-side relationship. A first pair of conductors is sandwiched inside a second pair of conductors. The second pair of conductors includes a crossover, the positioning of crossover being selected to provide differential to common mode crosstalk compensation.

Abstract: A shielding device for connection strips in telecommunications and data engineering has a number of shielding plates and at least one base rail allocated to the shielding plates. To simplify the process of fitting the shielding device inside a connection strip, the shielding plates (2) and the base rail (3) are integrally formed from a metal sheet (28), and each shielding plate (2) is connected to the base rail (3) via a narrow web (4) and is arranged rotated through approximately 90° with respect to the base rail (3).

Abstract: An electrical connector with improved crosstalk compensation is disclosed. By including at least one coupling with a different frequency dependency than other couplings in the connector, crosstalk compensation performance is improved over a greater frequency range. The different frequency dependency may, for example, be used to compensate for phase shifts caused by distances between compensation circuitry and the plug/jack interface. Embodiments for decreasing these distances are also disclosed.

Abstract: A mezzanine style electrical connector is disclosed. The connector includes first and second arrays of electrical contacts extending through a connector housing. Each contact array may include single ended signal conductors or differential signal pairs or a combination of both. The contact arrays are disposed adjacent to one another such that cross-talk between adjacent signal contacts is limited, even in the absence of any electrical shielding or ground contacts between the contact arrays.

Abstract: A compensating advanced feature patch panel that can include removable modular or fixed electronic components located directly on the patch panel which are separately or in combination capable of providing advanced features such as device detection and power insertion. The patch panel provides communications between an insulation displacement connector (IDC) at a PD/User end, and any standard interface type using unshielded twisted pair cables, such as an RJ45 connector at a switch end at performance levels of at least category 3, 5, 6 e, 6 and/or higher (e.g. 6 e or 7) and equivalent performance levels by compensating for the active electronics used in providing advanced features. Compensation is achieved in part through the separation and isolation of active and communication circuit elements.

Abstract: An electrical connector jack is provided including a body with a support portion and a plug receiving portion defining an opening. A circuit board is mounted to the support portion to position the circuit board relative to the plug receiving portion. The circuit board has interconnecting conductor circuit traces respectively extending from spring contact termination locations. A plurality of terminated spring contact conductors is provided with each terminating at a respective one of the spring contact termination locations, each of the terminated spring contact conductors having a contact zone. A plurality of supported spring contact conductors are supported by the body and extend therefrom. The supported spring contact conductors each have a plug contact zone and a terminated spring contact conductor zone.

Abstract: A communications jack includes: a jack frame having a plug aperture; a plurality of contact wires, the contact wires having free ends that extend into the plug aperture, the free ends of the contact wires being arranged serially in side-by-side relationship; a plurality of electrical terminals, the terminals being arranged in pairs, each pair defining a communication channel; a dielectric mounting substrate, the mounting substrate including a plurality of mounting locations for contact wires and a plurality of mounting locations for the electrical terminals; and a plurality of conductors mounted on the substrate, each of the conductors extending, defining a path, and establishing electrical connection between a contact wire mounting location and an electrical terminal mounting location.

Abstract: A modular jack (100) includes an insulative housing (20) having a base wall (22) and a peripheral lateral wall (26) projecting in generally normal relation from the base wall to define an interior cavity (30), a number of conductive contacts (40) fastened to the outer side of the lateral wall and extending into the interior cavity, and an insulative spacer (60) installed in the interior cavity for positioning the contacts therein.

Abstract: Data signal interconnections are described that offer reduced cross talk particularly with high speed differential signaling. In one example, the invention includes a plurality of interconnects to carry data signals between a first component and a second component, the plurality of interconnects including a first set of interconnects oriented in a first direction and a second set of interconnects oriented in a second direction, different from the first direction.

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: The invention specifically relates to a plug-and-socket connection part (1) of a plug-and-socket connection for a data transmission cable with a plurality of electrical conductors, comprising a connection housing, and per electrical conductor, a connection contact element (31) held by the connection housing, in each case with one insulation displacement contact (31.1) or a piercing contact, for contacting the electrical conductor, as well as in each case a contact (13.1) for contacting corresponding contacts of a corresponding counter piece with the plug-and-socket connection part. Each insulation displacement contact (31.1) or each piercing contact is electrically connectable to one of the contacts. The invention is characterized essentially in that the connection housing is shaped, such that the connection contact elements (31) may not be introduced from the outside into the connection housing.

Abstract: A connector equipped with an insulant comprising four channels. Each channel is able to receive at the location of a rear extremity a strand of a cable, and at the location of a front extremity an end of a contact in order to connect each strand to an end. The connector comprises a ferrule equipped with four cavities arranged in such a way that a front extremity of each cavity coincides with a rear extremity of a channel of the insulant in such a way that each strand connected to an end in the connector extends in a cavity of the ferrule and in a corresponding channel of the insulant. The invention also relates to a process for fitting the coaxial cables in such a connector.

Abstract: An electrical connector comprises a housing holding a circuit board. The circuit board has a top surface which includes a first region and a second region. Circuit traces are formed on the top surface and extend in the first and second regions. A first ground plane is disposed at a first depth in the circuit board below the circuit traces in the first region. The first depth is selected to provide a specific characteristic impedance of the circuit traces in the first region. A second ground plane is disposed at a second depth in the circuit board below the circuit traces in the second region. The second depth is selected to provide a specific characteristic impedance of the circuit traces in the second region.

Abstract: A receptacle connector includes a body, a cover assembled outside the body and a terminal module received in the body. The terminal module comprises a plurality of terminals and a pedestal. Each terminal defines a fixing portion. The fixing portion stretches sideward and forms a pair of locating projections. The pedestal further comprises an upper and a lower board. Both the upper and the lower board define a plurality of terminal channels and locating cavities. The fixing portion of the terminal is received in the terminal channel. The locating projection of the terminal is received and fixed in the locating cavity. The sides of the pedestal protrude sideward to form a pair of inserting portion. Accordingly, the body defines a receiving cavity to receive the terminal module. The body also defines a pair of receiving channels in sides of the receiving cavity for receiving the inserting portion of the pedestal.

Abstract: A network connection system for connecting computer network components, the network connection system including a twisted pair cable having multiple conductors in twisted pairs a cable termination connector affixable at an end of the cable. The cable termination connector includes a slender elongate connector housing; and termination contacts located within the connector housing. The termination contacts include a conductor engaging portion, optionally, an RJ connector engaging portion and a male contact portion releasably engageable to a female gripping contact. The network connection system also includes connecting hardware as well as a dust cover, a pull ring cover and a feeder strip. The present invention can be used on a local area network (LAN) or a wide area network (WAN).

Abstract: An electrical connector that includes first and second linear arrays of electrical contacts is disclosed. The first linear array is arranged in a first pattern of signal contacts and ground contacts. The second linear array is arranged in a second pattern of signal contacts and ground contacts that is different from the first pattern. The signal contacts define differential signal pairs. The signal contacts in the first linear array are elongated along a direction along which the first linear array extends.

Abstract: A communications jack assembly includes: a jack frame having a plug aperture; a dielectric mounting substrate attached to the jack frame; and a plurality of conductors engaged with the mounting substrate, each of the conductors including a fixed end portion mounted with the mounting substrate and a free end portion extending into the plug aperture for electrical contact with a mating plug, each of the free end portions having substantially the same profile and being substantially transversely aligned in side-by-side relationship. A first pair of conductors is sandwiched inside a second pair of conductors. The second pair of conductors includes a crossover, the positioning of crossover being selected to provide differential to common mode crosstalk compensation.

Abstract: A telecommunications connector includes first and second pairs of electrical conductors. The first and second pairs of conductors are arranged in one region of the connector such that one conductor of the first pair is selectively positioned to be closer to both of the conductors of the second pair than is the other conductor of the first pair, and such that the one conductor of the first pair couples a common mode signal of a first polarity onto the conductors of the second pair. In another region of the connector the other conductor of the first pair is selectively positioned to be closer to both of the conductors of the second pair to asymmetrically couple a common mode signal of a second polarity onto the conductors of the second pair.

Abstract: A connector equipped with an insulant comprising four channels. Each channel is able to receive at the location of a rear extremity a strand of a cable, and at the location of a front extremity an end of a contact in order to connect each strand to an end. The connector comprises a ferrule equipped with four cavities arranged in such a way that a front extremity of each cavity coincides with a rear extremity of a channel of the insulant in such a way that each strand connected to an end in the connector extends in a cavity of the ferrule and in a corresponding channel of the insulant. The invention also relates to a process for fitting the coaxial cables in such a connector.

Abstract: A connector is provided for simultaneously improving both the NEXT high frequency performance when low crosstalk plugs are used and the NEXT low frequency performance when high crosstalk plugs are used. The connector includes a first compensation structure provided on an inner metalized layer of the PCB at a first stage area of the PCB, and a second compensation structure, provided at a second stage area of the PCB, for increasing compensation capacitance with increasing frequency.

Abstract: A communications connector includes: a dielectric mounting substrate; at least four pairs of conductors mounted on the mounting substrate, each of the conductors including a free end segment, each of the free end segments being positioned in side-by-side and generally parallel relationship; and at least four pairs of terminals mounted on the mounting substrate, wherein each of the pairs of terminals is electrically connected to a respective pair of conductors.

Abstract: A communications connector includes: a dielectric mounting substrate; at least four pairs of conductors mounted on the mounting substrate, each of the conductors including a free end segment, each of the free end segments being positioned in side-by-side and generally parallel relationship; and at least four pairs of terminals mounted on the mounting substrate, wherein each of the pairs of terminals is electrically connected to a respective pair of conductors.

Abstract: An electrical connector that includes a linear array of electrical blade contacts is disclosed. Each contact may have a free-ended mating portion that extends from a mate surface of a dielectric base. The first linear array may include a first signal contact, a second signal contact positioned adjacent to the first signal contact and forming a differential signal pair therewith, and a ground contact positioned adjacent to the second signal contact. The first signal contact, the second signal contact, and the ground contact may each be elongated in a direction along the linear array.

Abstract: A connector is provided for compensating crosstalk with respect to an adjacently placed connector. Each of the connectors includes a printed circuit board (PCB), a plurality of pairs of contacts on the PCB, a plurality of pads disposed at edge portions of the PCB for compensating crosstalk, and a plurality of connecting parts for connecting electrically the pads to the pairs of contacts.

Abstract: An electrical connector (100) including an insulative housing (1) formed with at least a tongue (11); signal terminal pairs (31) loaded in the housing, each of the signal terminal pairs comprising a pair of adjacent signal terminals (310), each of the signal terminals having a contact portion (310a) attached on two opposing mating surfaces of each said at least a tongue; a first grounding means (321) having front portions (321a) attached on said mating surfaces between adjacent signal terminal pairs; and a second grounding means (322) having front portions (322a) embedded in said at least a tongue to insulate signal terminal pairs respectively arranged on the two opposing mating surfaces of said at least a tongue.

Abstract: Disclosed herein are a crosstalk canceling pattern for high-speed communications and a modular jack having the same, which includes a compensating capacitor on a transmission line to cancel crosstalk due to parasitic capacitance generated between neighboring insert pins, and includes a second compensating capacitor to correct phase mismatch due to parasitic inductance generated in insert pins and transmission lines, when a high-frequency signal is applied. The modular jack having the crosstalk canceling pattern for high-speed communications includes a housing, a printed circuit board, a lower contact block, and an upper contact block. The hosing includes a plug insert hole, an insert pin locking plate, and a coupling guide part. The printed circuit board is a multi-layered structure having a plurality of compensating capacitors. The lower contact block is mounted to the lower surface of the printed circuit board.

Abstract: The present invention is related to the modular plug housing insert device that makes electrical contact to a telecommunication plug to complete an interface media connection. The positional relationship of the conductors in the modular plug housing insert device are arranged to from capacitance, such that the Near-end Crosstalk (NEXT) and Far End Crosstalk (FEXT) is reduced without compromising impedance.

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.