Abstract: The disclosure relates to a plug-in connector including a housing having at least two contact terminals received in adjacent terminal receiving cavities. An electric identification device is arranged in the housing and adapted to simultaneously contact the at least two terminals. The electric identification device including a unique identifier, wherein one of the at least two terminals is an output terminal of the identification device, and wherein the unique identifier of the electric identification device is adapted to be read out via the output terminal for authenticating an original equipment manufacturer's parts, such as a plug-in authenticator.

Abstract: Systems and methods of additively manufacturing multi-material electromagnetic shields are described. Additive manufacturing processes use co-deposition to incorporate multiple materials and/or microstructures selected to achieve specified shield magnetic properties. Geometrically complex shields can be manufactured with alternating shielding materials optimized for the end use application. The microstructures of the printed shields can be tuned by optimizing the print parameters.

Abstract: Provided is a battery wiring module that allows module-side terminals to be easily mounted to a housing. The battery wiring module includes module-side terminals that are electrically connected to bus bars connecting battery terminals of a plurality of battery cells; wires with ends on one side connected to the module-side terminals; and a housing for accommodating the wires and the module-side terminals. The housing includes a plurality of terminal accommodating portions for accommodating the module-side terminals. The terminal accommodating portions include insertion ports into which the module-side terminals are partially inserted, and recesses that are located upstream of the insertion ports in a direction in which the module-side terminals are inserted and that are lower than terminal seat surfaces on which the module-side terminals can be placed.

Abstract: A connection system for a quantum computer that employs constant impedance connectors with attenuation or filtering components or both embedded therein or within an adaptor removably insertable within an adaptor housing for use in a cryogenically cooled quantum computer. The connection system provides a higher density of cables traversing through a hermetic sealed top plate, and which are accessible to chill blocks to reduce the thermal energy from the signal lines. Attenuators or filter circuits are embedded in the constant impedance connector housings, or provided in adaptors that connect on each end to form mating constant impedance connections, in order to reduce signal strength as the signal progresses through the cryogenic environment and to remove extraneous electrical signal noise.

Abstract: An apparatus is provided relating to the insertion of one or more wires into a cavity of a fixture of a structure or component. The wire insertion apparatus includes a grommet, a gripper adapted to interface with the grommet, and at least a first vibrating element. The first vibrating element is connected to and vibrates one or more of the apparatus, the grommet, the gripper, the wire, and/or a component of the apparatus. Vibration, induced in any direction, enables the cavities to shift position during insertion relative to the contact, thus increasing the tolerance of the cavity, reducing the failure rate of wire insertion, and reducing total production time. The vibration breaks the static friction of the contact in the grommet or dielectric opening, creates the positive locating required to insert the contact in the grommet and/or dielectric, and/or pivots the contact.

Abstract: The present disclosure relates to a screen-projection emitter, a screen-projection emission system and a screen-projection system. The screen-projection emitter includes a memory which is configured to store screen-projection data processing software instruction set. The computer device is configured to receive the screen-projection data processing software instruction set from the memory, run the screen-projection data processing software instruction set locally to process data of content to be projected, and provide the processed data of content to be projected to the screen-projection emitter.

Abstract: A data processing device includes an internal volume divided into isolated portions and a thermal management portion. The data processing device further includes an isolator that electromagnetically isolates a first isolated portion of the isolated portions from a second isolated portion of the isolated portions. The data processing device also include a thermal bus, disposed in the thermal management portion, that thermally manages the first portion.

Abstract: An exemplary depth imaging device includes an optical sensor having an optical axis, a lens positioned to focus light from a scene onto the optical sensor, a matrix of variable-phase optical elements that are dimensioned to introduce different phase delays into a wavefront of the light, and a housing that secures the matrix between the optical sensor and the lens. The device further includes a communication bus coupled to a processing subsystem that directs the optical sensor to capture at least two different perspectives of the scene to create an output image indicating depth within the scene. The device includes a positioning system that couples an optical component of the device to the housing. The optical component may include at least one of the lens, the optical sensor, or the matrix. Other related systems and methods are also provided.

Abstract: An electromagnetic interference (EMI) circuit assembly includes a first, second, and third conductive layer. A protection component disposed between the first and second conductive layers. A dielectric layer is disposed between the second and the third conductive layers. The protection component is configured to protect a load from one or both of an overcurrent condition and an over temperature condition, and the third layer define a capacitor configured to suppress EMI signals.

Abstract: A connection cable is provided with a plurality of structures, a first connector, and a second connector. The plurality of structures include a concave-shaped structure and a convex-shaped structure. The first connector includes the concave-shaped structure and the convex-shaped structure that are arranged in line symmetry with respect to a predetermined reference line. The second connector includes the concave-shaped structure and the convex-shaped structure that are arranged in line symmetry with respect to a predetermined reference line.

Abstract: A cable assembly includes multiple electrical cables and a filtering module. The electrical cables are arranged in a first cable section and a second cable section. Each electrical cable has a pair of signal conductors. The filtering module includes a substrate and multiple passive filtering devices mounted on the substrate. The filtering module is disposed between the first cable section and the second cable section along a length of the cable assembly and is mechanically connected to ends of the first and second cable sections. The passive filtering devices are electrically connected to the signal conductors of the electrical cables. The cable assembly is configured to be electrically connected between first and second connectors. The filtering module is configured to filter electrical signals conveyed along the electrical cables between the first and second connectors.

Abstract: A board-edge interconnection module features integrated capacitive coupling, which enables a board design employing the module to avoid having AC capacitors and flexible cables with bulky connectors. The recovered real estate enables further miniaturization, enabling the component to be used on a wide variety of devices, including ultra-mobile computing devices.

Abstract: Provide are a control apparatus, a connector, and a laminated capacitor for connector which are small and light and in which the capacitor capacitances on the terminals can be easily adjusted. A laminated capacitor 113 is integrally formed by laminating: a terminal dielectric sheet 123a on which is printed a terminal circuit pattern P10a having terminal connecting patterns P12a electrically connected to a plurality of connection terminals 111 and terminal-side electrode patterns P11a connected to the terminal connecting patterns P12a; and a ground dielectric sheet 123b on which is printed a ground circuit pattern P10b having ground-side electrode patterns P11b disposed to face the terminal-side electrode patterns P11a and a ground pattern P12b connected to the ground-side electrode patterns P11b.

Abstract: The present invention provides a system and a method which enable an increase in signal transmission speed and stable operation, without incurring the likes of restrictions on the manufacturing of circuit boards. A transmission system includes an AC terminal connector, having an AC termination circuit including a resistor and a capacitor, at the open ends of through hole stubs provided in a circuit board.

Abstract: An electrical connector with electrically lossy materials bridging ground members. The lossy conductive members may be formed by filling a settable binder with conductive particles, allowing the partially conductive members to be formed through an insert molding process. Connectors assembled from wafers that contain signal conductors held within an insulative housing may incorporate lossy conductive members by having filled thermal plastic molded onto the insulative housing. The lossy conductive members may be used in conjunction with magnetically lossy materials. The lossy conductive members reduce ground system do resonance within the connector, thereby increasing the high frequency performance of the connector.

Abstract: An improved electronic filter is provided with capacitance and integral inductance properties. The filter has a capacitor with first planer internal electrodes in electrical contact with a first termination and second planer internal electrodes in electrical contact with a second termination. A dielectric is between the first planer internal electrodes and the second planer internal electrodes. A third termination is provided and a conductive trace on a surface of the capacitor is between the third termination and the first termination. A ferromagnetic or ferrimagnetic material is coupled to the conductive trace.

Abstract: An inverter with a connector element has a fixture with a connector element arranged thereupon and an electronic part which can be plugged into the connector element, together forming the inverter. The connector element is formed by a connector block for connecting at least one solar module, and at least one connector for the electronic part, wherein corresponding connector sockets for pluggably connecting to the connectors are arranged on the electronic part, and the inverter is formed by a DC breaking element. To allow solar modules to be separated easily, the connector element is composed of an assembly wherein the connector block and the connector are arranged at least on one side and a DC breaking element is arranged between them. An actuation element of the DC breaking element is arranged outside the assembly to mechanically or electronically activate and deactivate the connection between the connector block and the connector.

Abstract: The invention relates to a connector assembly for an electrical plug-in connector (10), in particular an electrical socket plug-in connector (10) for an igniter of an airbag, with a contact casing (100) in which at least one electrical contact means (50) can be provided, and a contact securing means (200) which has a locking means (210) by means of which the contact means (50) can be locked in the contact casing (100); the contact securing means (200) having a strain-relief means (230) by means of which at least partially a strain relief for an electric line (60) connected to the contact means (50) can be set up on/in the connector assembly (12); and/or the connector assembly (12) having a plug-in-connector securing means (400) which, starting from a pre-latching position (V) on the connector assembly (12), for a final latching position (E) can be brought into engagement with the contact securing means (200) and/or a strain-relief cover (300) of the connector assembly (12).

Abstract: Communications jacks include a housing having a plug aperture that is configured to receive a mating RJ-45 plug along a longitudinal axis and eight jackwire contacts that are arranged as four differential pairs of jackwire contacts, each of the jackwire contacts including a plug contact region that extends into the plug aperture. A first of the jackwire contacts is configured to engage a longitudinally extending surface of a first blade of a mating RJ-45 plug when the mating RJ-45 plug is fully received within the plug aperture.

Abstract: A DC connector with a voltage-stabilizing function has a tube and a wire connected with a noise-resistant filter between the tube and the wire. The tube has an upper cap and a lower opening. The lower opening has an internal terminal for electrical connection when the tube is inserted into a corresponding socket. The upper cap of the tube has a first connecting part. An outer wall of the tube near the upper ring has a second connecting part. The filter has two electrode terminals electrically connecting to the first and second connecting parts, respectively. The first and second connecting parts also electrically connect to the anode and cathode of the wires. Therefore, when an electrical signal is sent from the wire to the first connecting part, the filter provides the functions of filtering noises for stabilizing voltage.

Abstract: A connector includes a holder (20) and an electronic component (60) with a cylindrical main body (61). Lead wires (62) project axially from one axial end (61A) of the main body (61). An electronic component holding portion (35) is in the holder (20) and includes an insertion opening (39) into which the electronic component (60) is inserted. Projecting portions (64) are formed on the lead wires (62) and project radially out beyond an outer peripheral surface of the main body (61). The electronic component holding portion (35) includes a main body accommodating portion (36) for accommodating the main body (61) and guides (37) that communicate with the main body accommodating portion (36). The guides (37) are located radially outward of the main body (61) and guide the projecting portions (64) toward back sides in an inserting direction while suppressing circumferential movements of the projecting portions (64).

Abstract: A connector (10) includes a capacitor (30) with a capacitor main body (31) extending in a front-back direction and two lead wires (32) extending forward from the front end of the capacitor main body (31). Busbars (50, 60) are arranged before the capacitor (30) and have two electronic component connecting portions 55, (65) to be connected to the lead wires (32). The connector (10) also has a housing with a forwardly open insertion opening (21) into which the capacitor (30) and the busbars (50, 60) are insertable so that the busbars (50, 60) are held. An electronic component holding portion (43) is provided in the housing and includes resiliently deflectable pieces (44) that are configured to clamp the capacitor main body (31) in a deflected state.

Abstract: Protective containers for electronic equipment, and methods of testing and manufacture thereof, are provided. Enclosure systems and methods for protecting telecommunications equipment from electromagnetic fields include cabinets having a maximum width dimension that does not exceed about 26 inches and a maximum depth dimension that does not exceed about 22? inches. The cabinets provide a HEMP protection level to electronic equipment housed therein that meets a HEMP protection level according to MIL-STD-188-125-1.

Abstract: The present disclosure relates to a telecommunications connector having cross-talk compensations, and a method of managing alien crosstalk in such a connector. In one example, the telecommunications connector includes electrical conductors arranged in differential pairs and a circuit board with conductive layers that provide a cross-talk compensation arrangement for applying capacitance between the electrical conductors. The circuit board includes conductive paths that provide capacitive coupling and a conductive plate that intensifies capacitive coupling of the electrical conductors. In another example, the telecommunications connector is used with a twisted pair system.

Abstract: The present invention relates to a power inserter having frequency compensating function, which comprises: a housing formed with a chamber, a first opening, a second opening and a third opening; a first connector exposed outside the housing through the first opening; a second connector exposed outside the housing through the second opening; a third connector exposed outside the housing through the third opening; and characterized in that: a capacitor is further provided, a first terminal of the capacitor is formed with a winding having at least half turn and coupled to a signal terminal of the third connector, a second terminal of the capacitor is formed with a winding having at least half turn and coupled to a signal terminal of the second connector, thereby being enabled to provide the frequency compensating function.

Abstract: A communication jack having crosstalk compensation features for overall crosstalk interference reduction is disclosed. In one embodiment, the jack is configured to receive a plug to form a communication connection, and comprises jack contacts disposed in the jack, with each contact having at least a first surface and a second surface. Upon the plug being received by the jack, the plug contacts interface with the first surface of the jack contacts. The jack further includes a first capacitive coupling connected between two pairs of jack contacts to compensate for near end crosstalk, with the first capacitive coupling being connected to the pairs of jack contacts along the second surface adjacent to where the plug contacts interface with the jack contacts. A far end crosstalk compensation scheme is also set forth.

Abstract: A connection jack to which a connection plug having a center terminal and an earth terminal arranged on an outer peripheral side of the center terminal is connected and provided in an electronic apparatus in which a capacitor is disposed inside, includes: a housing made of an insulating material, in which an insertion opening to which the connection plug is inserted is formed; a center electrode to which the center terminal is connected and connected to the capacitor; a first earth electrode arranged on an outer peripheral side of the center electrode, to which the earth terminal is connected, and connected to the capacitor; and a second earth electrode arranged on an outer peripheral side of the center electrode, to which the earth terminal is connected, connected in series to a resistance limiting inrush current and connected to the capacitor through the resistance.

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 connector assembly for installing a device to a ceiling grid, the ceiling grid having conductors provided therein. The connector assembly includes a housing with contact arms mounted in the housing. Contact portions of the contact arms extend from the housing and are placed in electrical engagement with the conductors when the connector assembly is mated with the ceiling grid. Mounting members extend from the housing. Mounting sections of the mounting members are placed in mechanical engagement with the ceiling grid to provide a mechanical connection between the ceiling grid and the connector assembly. A polarity protection/correction member is provided in the housing. The polarity protection/correction member protects the device from failure or damage when the polarity orientation of the device does not match the polarity orientation of the conductors of the grid.

Abstract: A method of reducing crosstalk. The method may include forming a first contact over a first vertical conductor. The method may include forming a second contact over a second vertical conductor. The method may include forming a capacitive coupler between the first contact and the second contact, wherein the capacitive coupler is to cancel crosstalk received at the second vertical conductor from the first vertical conductor.

Abstract: A cable coupler including an external cylinder mechanism having an inner conductor for electrically connecting the inner conductor itself to the outer conductors of the shielded cables, an outer conductor having a larger diameter than the inner conductor, a gap portion disposed between the inner conductor and the outer conductor, and capacitors arranged in the gap portion, for electrically connecting between the outer conductor and the inner conductor, an inner portion of the external cylinder mechanism being able to be opened and closed along a longitudinal direction, an internal coupling mechanism placed inside the inner conductor and having connecting pins for holding the core wires of the shielded cables, for electrically connecting between the core wires of the shielded cables, and a base for holding the external cylinder mechanism and for electrically connecting the external cylinder mechanism to an external conductor.

Abstract: A method of producing a surface-mount inductor by encapsulating a coil with an encapsulation material containing a resin and a filler using a mold die assembly is provided. In the method, a tablet and a coil are used. The tablet is prepared by preforming the encapsulation material into a shape having a flat plate-shaped portion and a pillar-shaped convex portion on a peripheral thereof. The coil is a wound conductive wire having a cross-section of rectangular-shape. The coil is placed on the tablet to allow both ends of the coil to extend along an outer side surface of the pillar-shaped convex portion of the tablet. The coil and the encapsulation material are integrated together while clamping the both ends of the coil between an inner wall surface of the mold die assembly and the outer side surface of the pillar-shaped convex portion of the tablet, to form a molded body.

Abstract: For providing a joint connector which is miniaturized and general-purpose by designing an interval between needle shape terminal portions same as an interval between terminals of the general-purpose connector, the joint connector 1 includes a terminal 3 with a ferrite core 10, and a connector housing 2 receiving the terminal 3. The terminal 3 includes a busbar 28 and a plurality of needle shape terminal portions 29 extending from the busbar 28 at intervals along a direction of lengthwise of the busbar 28. The ferrite core 10 includes a first ferrite core 10a arranged at a base end 29a of the needle shape terminal portion 29 and a second ferrite core 10b arranged at an intermediate portion 29b of the needle shape terminal portion 29. The first ferrite core 10a and the second ferrite core 10b are arranged alternately at each of the plurality of needle shape terminal portions 29.

Abstract: The present disclosure discloses a structural capacitor, a connector comprising the structural capacitor and a communication apparatus using the connector. The structural capacitor comprises a rod and a holder. The rod comprises a first section and a second section connected with the first section, and the holder comprises a through hole. The first section and the second section are fitted into the through hole to accomplish the connection between the first section and the second section in an axial direction. The connector of the present disclosure features a simple structure, a convenient manufacturing process and a low cost. The communication apparatus of the present disclosure has advantages such as a simple manufacturing process, parameters that can be easily guaranteed, a low processing cost and a stable product performance.

Abstract: A communication jack having crosstalk compensation features for overall crosstalk interference reduction is disclosed. In one embodiment, the jack is configured to receive a plug to form a communication connection, and comprises jack contacts disposed in the jack, with each contact having at least a first surface and a second surface. Upon the plug being received by the jack, the plug contacts interface with the first surface of the jack contacts. The jack further includes a first capacitive coupling connected between two pairs of jack contacts to compensate for near end crosstalk, with the first capacitive coupling being connected to the pairs of jack contacts along the second surface adjacent to where the plug contacts interface with the jack contacts. A far end crosstalk compensation scheme is also set forth.

Abstract: A connector (10) has a capacitor (20) connected to a ground-side terminal (32) formed by press-working a metal base material in the form of a flat plate and is accommodated in a housing (50) made of synthetic resin. A connecting head (38) is provided on the ground-side terminal (32) and is thinner than the base material. The connecting head (38) is connected to a ground-side electrode (21B) provided on the capacitor (20) by soldering. A resiliently deformable neck (39) on the ground-side terminal (32) is narrower than the connecting head (38) and extends from the connecting head (38). A molded portion (53) is provided in the housing (50) to integrally cover the ground-side electrode (21B) of the capacitor (20) and the connecting head (38) of the ground-side terminal (32).

Abstract: A network connector structure includes an insulating body having a port inwardly formed at a front-end surface of the insulating body, a containing space formed in the insulating body insulating body, and a first circuit board and a second circuit board parallely installed and electrically coupled to each other. A plurality of connecting terminals and a plurality of filter elements are electrically coupled to the first circuit board, and at least one network integrated circuit and a plurality of soldered terminals are electrically coupled to the second circuit board. The network connector is electrically coupled to an external transmission line through the plurality of connecting terminals, and electrically coupled to a motherboard of an external electronic device through the plurality of soldered terminals, so that the network integrated circuit inside the network connector provide network signal encoding/decoding functions directly.

Abstract: The present invention discloses a printed circuit board. The printed circuit board is made by the method of providing a substrate; forming a first circuit on the substrate; depositing a thin film on the substrate; building an electronic component on the substrate by the thin film and allowing the electronic component to electrically connect the first circuit; forming a blanket dielectric layer enclosing the electronic component; and removing the substrate.

Abstract: An electrical contact includes a body having a mating segment. At least a portion of the mating segment defines a first conductive element having a three-dimensional (3D) surface. A dielectric layer is formed directly on the 3D surface of the first conductive element in engagement with the 3D surface. A second conductive element is formed on the dielectric layer such that the dielectric layer extends between the first and second conductive elements. The first and second conductive elements and the dielectric layer form a capacitor.

Abstract: A connection jack to which a connection plug having a center terminal and an earth terminal arranged on an outer peripheral side of the center terminal is connected and provided in an electronic apparatus in which a capacitor is disposed inside, includes: a housing made of an insulating material, in which an insertion opening to which the connection plug is inserted is formed; a center electrode to which the center terminal is connected and connected to the capacitor; a first earth electrode arranged on an outer peripheral side of the center electrode, to which the earth terminal is connected, and connected to the capacitor; and a second earth electrode arranged on an outer peripheral side of the center electrode, to which the earth terminal is connected, connected in series to a resistance limiting inrush current and connected to the capacitor through the resistance.

Abstract: A universal serial bus (USB) connector includes a housing and a main body received in the housing. The main body includes an insulator, a number of conductive terminals, a number of conductive pieces, and an anti-electromagnetic radiation (EMR) member. The conductive terminals, the conductive pieces, and the anti-EMR member are arranged in the insulator. Each conductive piece connects a corresponding one of the conductive terminals to the anti-EMR member.

Abstract: An electrical connector electrically connects a first printed circuit board and a second printed circuit board, where the electrical connector includes: (a) an insulative housing; (b) a plurality of signal conductors, with at least a portion of each of the plurality of signal conductors disposed within the insulative housing; (c) each of the plurality of signal conductors having a first contact end, a second contact end and an intermediate portion therebetween; and (d) a passive circuit element electrically connected to the intermediate portion of each of the plurality of signal conductors, where the passive circuit element is housed in an insulative package and includes at least a capacitor or an inductor.

Abstract: A communication jack having crosstalk compensation features for overall crosstalk interference reduction is disclosed. In one embodiment, the jack is configured to receive a plug to form a communication connection, and comprises jack contacts disposed in the jack, with each contact having at least a first surface and a second surface. Upon the plug being received by the jack, the plug contacts interface with the first surface of the jack contacts. The jack further includes a first capacitive coupling connected between two pairs of jack contacts to compensate for near end crosstalk, with the first capacitive coupling being connected to the pairs of jack contacts along the second surface adjacent to where the plug contacts interface with the jack contacts. A far end crosstalk compensation scheme is also set forth.

Abstract: A power supply connector (1), comprising an insulating body (2) which supports a plurality of electrical contacts (3) and a plurality of wiring conductors (4), and comprising an electrical filtering means (5), which is interposed between the electrical contacts and the wiring conductors and is integrally inserted in the insulating body.

Abstract: Protective containers for electronic equipment, and methods of testing and manufacture thereof, are provided. The cabinets provide a HEMP protection level to electronic equipment housed therein that meets a HEMP protection level according to MIL-STD-188-125-1.

Abstract: An electromagnetic filter, which may include a feed-through conductor. The feed-through conductor may have an integral extension for contacting an electrically conductive clip. The clip may have an extension-engaging portion to contact the extension and a dielectric component-contacting end to contact a dielectric component. The dielectric component may be, for example, a varistor, a chip capacitor, or the like, capable of affecting a signal carried by the feed-through conductor. The dielectric component may be proximate to the feed-through conductor and may be oriented such that a primary dimension of the dielectric component is substantially parallel to the feed-through conductor. Another embodiment may include a bus. The invention may also be embodied as methods for assembling electromagnetic filters.

Abstract: Communications plugs are provided that include a plug housing. A plurality of plug contacts are mounted in a row at least partly within the plug housing. The plug contacts are arranged as differential pairs of plug contacts. Each of the differential pairs of plug contacts has a tip plug contact and a ring plug contact. A first capacitor is provided that is configured to inject crosstalk from a first of the tip plug contacts to a first of the ring plug contacts at a point in time that is after the point in time when a signal transmitted through the first of the tip plug contacts to a contact of a mating jack reaches the contact of the mating jack.

Abstract: A ground shield is provided for an electrical connector mounted on a printed circuit. The ground shield includes a body extending from a mating interface to a mounting interface. An electrical ground path is defined through the body between the mating and mounting interfaces. The mating interface includes a mating contact configured to engage a mating connector. The mounting interface includes a mounting contact configured to engage the printed circuit. The body includes two conductive layers separated by a dielectric substance such that a capacitor is provided within the electrical ground path.

Abstract: An apparatus, in accordance with particular embodiments, includes an interface configured to establish connections within a copper network. The apparatus also includes a receptacle configured to receive a conventional small form-factor pluggable (SFP) module or a compact SFP module and to direct the SFP modules to a first connector. The first connector connects either of the SFP modules to the node. A pin of the first connector is configured to receive a module detection signal and to transmit data to the compact SFP module. The apparatus also includes a low pass filter coupled to the pin of the first connector that passes the module detection signal to the node. The apparatus is further configured to establish two duplex connections with an optical fiber network if the compact SFP module is connected and to establish one duplex connection with the optical fiber network if the conventional SFP module is connected.

Abstract: A jack is provided that has compensation and crosstalk zones. At least one of the zones employs a lattice network that couples conductors in the zone to reduce the net crosstalk in the plug/jack system. The lattice network has a frequency response slope that is different from the frequency response slope of a first-order coupling or of a series LC circuit coupling. A variety of lattice networks are provided.