A connector assembly is provided that is suitable for modifying the resonant frequency of ground terminals used in conjunction with high data rate signal terminals. Ground terminals may be interconnected with a conductive bridge so as to provide ground terminals with a predetermined maximum effective electrical length. Reducing the effective electrical length of the ground terminal can move the resonance frequencies of the connector outside the operational range of frequencies at which signals will be transmitted.
H01R 4/66 - Connections with the terrestrial mass, e.g. earth plate, earth pin
H01R 13/646 - ELECTRICALLY-CONDUCTIVE CONNECTIONS; STRUCTURAL ASSOCIATIONS OF A PLURALITY OF MUTUALLY-INSULATED ELECTRICAL CONNECTING ELEMENTS; COUPLING DEVICES; CURRENT COLLECTORS - Details of coupling devices of the kinds covered by groups or specially adapted for high-frequency, e.g. structures providing an impedance match or phase match
H01R 29/00 - Coupling parts for selective co-operation with a counterpart in different ways to establish different circuits, e.g. for voltage selection, for series/parallel selection
H01R 13/6471 - Means for preventing cross-talk by special arrangement of ground and signal conductors, e.g. GSGS [Ground-Signal-Ground-Signal]
H01R 13/6474 - Impedance matching by variation of conductive properties, e.g. by variation of dimensions
H01R 13/6586 - Shielding material individually surrounding or interposed between mutually spaced contacts for separating multiple connector modules
H01R 43/20 - Apparatus or processes specially adapted for manufacturing, assembling, maintaining, or repairing of line connectors or current collectors or for joining electric conductors for assembling or disassembling contact members with insulating base, case or sleeve
H01R 31/08 - Short-circuiting members for bridging contacts in a counterpart
A connector assembly is provided that is suitable for modifying the resonant frequency of ground terminals used in conjunction with high data rate signal terminals. Ground terminals may be interconnected with a conductive bridge so as to provide ground terminals with a predetermined maximum effective electrical length. Reducing the effective electrical length of the ground terminal can move the resonance frequencies of the connector outside the operational range of frequencies at which signals will be transmitted.
A cable connector assembly is disclosed for use in connecting electronic devices together. The connector has a housing and a mating blade in the form of a paddle card to which wires of a cable are terminated. The connector housing supports a latching mechanism with an actuator that when selectively pulled delatches the latching mechanism from its engagement with the housing of an electronic device. The actuator has an elongated pull tab portion that has a rounded edge for at least three of its four sides. This rounded edge eliminates the sharp corners associated with rectangular or square cross sections of conventional pull tabs, thereby removing stress riser points and giving the pull tab greater resistance against tearing when subjected to torsional loading.
A plug style connector has an outer connector housing with an internal passage which accommodates a cable assembly. A plurality of multi-wire cables extend through a wire organizer that arranges the cables in a preselected arrangement. Exposed free ends of the conductors of the wires are terminated to multiple circuit boards which are separated in a preselected spacing by a spacer member. The spacer member and wire organizer have flat opposing surfaces that define boundaries of a body portion formed by the application of a hot melt to the cables, the hot melt adheres to the wire organizer and the spacer to hold the cable wires and their associated circuit boards in place for correct insertion into the connector housing.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
An optical fiber cable assembly includes an optical fiber cable, an optical fiber connector, and a strain relief member. The optical fiber connector has a housing with at least two ferrules supporting a plurality of optical fibers of the cable. Each ferrule has at least two ribbons of optical fibers therein. The strain relief member has a flexible corrugated conduit. A method is also disclosed.
A connector is provided with a pair of terminals configured to provide a differential signal pair. A ground terminal is positioned on opposing sides of the differential pair. The body of the differential pair is configured so as to bring the differential pair closer together. In an embodiment, the % coupling on the differential pair is increase at least 10% more than a design where the four terminals are positioned at a constant pitch between the tail and the contact.
H01R 24/00 - Two-part coupling devices, or either of their cooperating parts, characterised by their overall structure
H01R 24/76 - Two-part coupling devices, or either of their cooperating parts, characterised by their overall structure with sockets, clips or analogous contacts and secured to apparatus or structure, e.g. to a wall
An electrical connector assembly includes a connector, designed to connect to a mating electrical device while maintaining a closed circuit throughout. The electrical device includes conductive contacts. The electrical connector includes an insulating housing with at least a pair of input/output terminals mounted thereon. The terminals include contacts for engaging the electrical device. A switch mechanism, mounted on the housing for movement between connecting and disconnecting positions, includes a latch member and at least one switch terminal. In the connecting position, the latch member engages a latch on the electrical device with the switch terminal out of engagement with the input/output terminals. In the disconnecting position, the latch member disengages from the latch on the electrical device for removal from the assembly with the switch terminal in engagement with the input/output terminals to maintain a closed circuit throughout when the electrical device is removed.
A circuit card is provided that includes ground traces that extend from a resistor to a commoning bar, where a resultant electrical length between the resistor and the commoning bar and is configured to reduce energy carried on the ground terminals that could otherwise result in cross-talk. In an embodiment, the ground trace may be configured in a meandering manner. In another embodiment, the ground trace may be split and joined by an inductor.
An electrical connector includes a dielectric housing having a mating face, a plurality of openings therein configured as pairs of aligned openings and a receptacle for receiving a plurality of internal modules therein. A plurality of electrically conductive contacts are positioned within the housing with a portion of each contact extending into one of the openings for engaging contacts of a mateable connector. At least one conductive inter-module shield is located within the receptacle and extends generally towards the mating face to define a plurality of module receiving cavities.
H01R 24/00 - Two-part coupling devices, or either of their cooperating parts, characterised by their overall structure
H01R 13/518 - Means for holding or embracing insulating body, e.g. casing for holding or embracing several coupling parts, e.g. frames
H01R 13/6587 - Shielding material individually surrounding or interposed between mutually spaced contacts for separating multiple connector modules for mounting on PCBs
H01R 12/72 - Coupling devices for rigid printing circuits or like structures coupling with the edge of the rigid printed circuits or like structures
H01R 13/6595 - Specific features or arrangements of connection of shield to conductive members the shield being mounted on a PCB and connected to conductive members with separate members fixing the shield to the PCB
H01R 24/64 - Sliding engagements with one side only, e.g. modular jack coupling devices for high frequency, e.g. RJ 45
A connector includes a conductive body with a central bore along a central axis. The body includes a mounting face for positioning adjacent a mounting surface of a circuit member and for removably engaging a reference pad of the circuit member. A center conductive contact includes a board engaging end for removably engaging a signal pad of the circuit member. An inner dielectric insert is positioned between the conductive body and the center conductive contact. The conductive body, the center conductive contact and the inner dielectric insert are configured to operate at a frequency of at least 40 GHz with a return loss of greater than 20 dB.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
15.
Card edge connector and assembly including the same
A card edge connector includes a dielectric housing having an end portion configured to receive a latch/eject member for ejecting and latching a card module in a pivot manner. The latch/eject member includes a lower end surface, which is located outside the dielectric housing when the latch/eject member is in the locking position.
A magnetic jack assembly includes a housing, circuit boards, shields and various filtering components. Multiple aspects of the assembly enhance manufacturability and facilitate automated manufacturing.
A light emitting diode (LED) module is provided that includes a base and a cover. Circuitry is provided on the base. An LED array is provided on the base and is coupled to the circuitry, which in an embodiment may convert AC line voltage to DC voltage. The LED module can be configured to take up minimal space while providing desirable light output.
A connector includes a housing positioned in a cage. A vertical wall is positioned around the housing and is soldered to a printed circuit board that is supporting the connector. The vertical wall includes a plurality of fingers that are configured to engage the cage. The fingers are positioned at intervals such that the distance between the fingers acts to control the frequencies of EMI that emit from the connector.
Accordingly, the board-to-board connector of the Present Disclosure comprises a first connector mounted on a surface of a first board and a second connector mounted on a surface of a second board and mating with the first connector. The first connector includes a flat-shaped main body part, a first conductive body placed on the mating surface of the main body part, and a plurality of male terminals protruding from the surface of the first conductive body. The second connector is a flat-shaped material formed from flat-shaped metal, and includes a plurality of female terminals flexibly retaining the male terminals. Positioning of the male and female terminals is accomplished by the male terminals being retained by the female terminals.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
A connector includes a multi-port shield configured to reduce EMI. A housing is positioned inside the shield and includes one or more projections extending from a first face, the projections aligned with each port. A vertical wall is provided on the first face of the housing. Apertures in the vertical wall are aligned with the projections. The vertical wall helps reduce the amount of EMI generated by the connector.
A connector has a housing and two edge card-receiving slots disposed in a stacked arrangement on a first face of the housing. The housing supports a plurality of wafers, each wafer supporting a plurality of terminals and including two grooves, the grooves aligned with the terminals supported by the wafer. The housing may be positioned in a cage that includes receptacles on a front face of the cage. A light pipe may extend toward the front face of the cage.
A magnetic jack assembly includes a housing, circuit boards, shields and various filtering components. Multiple aspects of the assembly enhance manufacturability and facilitate automated manufacturing.
A plug connector is provided that can be electrically coupled to wires provided in a cable. The connector includes a leadframe that supports contacts and insulation displacement terminals in electrical communication. The connector includes a wire module that includes wire channels. A cage is provided to support the leadframe and the wire module. When wires from the cable are inserted into the wire channels, the wire module can be translated so that the insulation displacement terminals engage the wires. In an embodiment, the electrical path between a contact and a corresponding insulation displacement terminal can extend through magnetics and the magnetics can help increase the signal to noise ratio.
A connector assembly includes a cage with a plurality of ports for receiving modules. An air passage is associated with each port and extends from a rear wall of the cage through a front face of the cage. The air passage way is configured to provide relatively consistent airflow regardless of whether or not a module is inserted into the corresponding port.
H01R 13/00 - ELECTRICALLY-CONDUCTIVE CONNECTIONS; STRUCTURAL ASSOCIATIONS OF A PLURALITY OF MUTUALLY-INSULATED ELECTRICAL CONNECTING ELEMENTS; COUPLING DEVICES; CURRENT COLLECTORS - Details of coupling devices of the kinds covered by groups or
A wire to board connector assembly includes mating first and second connectors. The board (second) connector is configured for surface mounting to a circuit board and contains a plurality of surface mount terminals with a pair of contact arms defining a mating slot therebetween. The other, mating (first) connector includes a plurality of box-style terminals that are supported and restrained in place within a first connector housing. Projections are dispose in the first connector housing and extend lengthwise along the direction of the terminals and provide support for the terminals. Locking members are formed as part of the first housing and reliably engage the second housing.
A loop connector comprises first and second connectors. The first connector has a first housing and a pair of first terminals, is configured to be surface-mounted on a top surface of a board, and has a fitting face thereof extending in a direction intersecting the top surface of the board. The second connector has a second housing and a second terminal configured to contact one of the first terminals, is configured to engage the first connector, and has a fitting face thereof extending in a direction intersecting an extending direction of the second terminal. The second housing is provided with a second terminal accommodation-concave portion. The second terminal is provided with a pair of terminal bodies and a connecting portion to connect thereto, the terminal bodies being perpendicular to the connecting portion when the second terminal is press-fit into the second terminal accommodation-concave portion.
A connector includes a cage that has two side walls, a top cover and a rear wall that are combined to form a hollow enclosure. The enclosure is separated into two module-receiving bays by at least one spacer with a top and bottom wall that extends between the sidewalls to form a central portion between a top and bottom bay, the central portion acting as an air passage between a front face and the sides of the connectors. Air openings are formed in the sidewalls of the cage assembly and they communicate with the central portion. The bottom wall of the spacer is provided with a large opening that extends a substantial distance of module-receiving bay and provides an air flow path from the air openings to the bottom module-receiving bay. An insert with apertures in communication with the central portion can be positioned.
a) that supports a plurality of terminals (210). One side of the housing includes a slot (230) that is configured to accept a panel (30) and first terminal contacts (213) are positioned in the slot. An exposed support surface (206) extends from a wall (204) on a second side and second terminal contacts (211) extend above the support surface. In operation, if the panel inserted into the slot is inserted in a vertical direction, the second contacts can engage pads of panel where the panel is mounted on the housing by moving the panel in a vertical direction.
An connector assembly is provided that may be utilized for vertical applications on a circuit board. The assembly includes a housing that supports a plurality of wafers that in tern support a plurality of terminals. The housing includes a base and a nose and can have two slots in the nose and the terminals extend to both slots. A guide frame can be positioned on the housing to help support the housing. The terminals can be arranged in a row on both sides of the two slots. The tails of the terminals can be configured with respect to the slots so as to provide desirable performance.
An electrical connector includes an insulating housing with a tongue plate protruding forwards from a front portion thereof and a plurality of conductive terminals comprising an upper row of conductive terminals and a lower row of conductive terminals which are mounted on upper and lower sides of the tongue plate respectively. The terminals include a butting portion, a soldering portion, and a bending portion connected between the butting portion and the soldering portion. At least one positioning modules is mounted into the accommodating chamber of the insulating housing so that it envelopes a periphery of the bending portions of the plurality of conductive terminals.
An electrical connector comprises a housing, a plurality of first terminals, a plurality of second terminals, a plurality of third terminals and a cage provided on the exterior of the housing. The housing comprises a base and a tongue. The base is provided with a base wall and an assembly slot provided on the base wall to which the mated tongue mates. The tongue is provided with a body and a plurality of terminal installation slots recessed downward at intervals from the top surface of the body, the rear end of the terminal installation slots being defined by a boss part. A yield notch is provided at each location where each terminal passageway corresponds to the boss part. Because the boss parts increase the strength of the tongue, and by utilizing the yield notches, the contacts are able to prevent the boss parts from entering the terminal installation slots.
This approach generally pertains to a miniature terminal receptacle (10) with a connection section (12) and a mating section (14). The mating section has a pseudo- two-beam component that includes a contact spring (20) having a stationary beam, a resilient contact beam (24) and a beam overlapping section (26). The resilient contact beam has a contact bump (40) and a stiffening section (30) with a pivotal point (38). The shape of the contact spring increases the contact engagement or holding force on a male pin during mating. Overstress protection of the contact spring is provided and the terminal is economical to produce.
A connector assembly is provided that is suitable for modifying the resonant frequency of ground terminals used in conjunction with high data rate signal terminals. Ground terminals may be interconnected with a conductive bridge so as to provide ground terminals with a predetermined maximum effective electrical length. Reducing the effective electrical length of the ground terminal can move the resonance frequencies of the connector outside the operational range of frequencies at which signals will be transmitted.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
35.
Plug connector with external EMI shielding capability
A shielded cable connector takes the form of a plug connector that is terminated to a plurality of wires of a cable. The wires are terminated to an edge card and a premold portion is formed thereover. An exterior shielding braid of the cable is extended over the premold and is formed with the connector housing so that a portion of it is exposed on the exterior of the connector housing. This exposed portion contacts an exterior conductive collar that is supported on the connector housing. The sleeve has a plurality of spring contact arms so as to make electrical shielding contact between the cable braid exposed on the connector housing and an exterior metal guide into which the connector is inserted when mating to an opposing connector.
A connector assembly is provided that is suitable for controlling the resonance frequency of ground terminals used to shield high-speed differential pairs. Ground terminals may be commonized so as to provide ground terminals with a predetermined maximum electrical length. Reducing the electrical length of the ground terminal can move a resonance frequency of the ground terminals of the connector outside the range of frequencies at which signals will transmitted.
b) and the wafer for the top and bottom port can be substantially different heights. The ports can be configured to provide a higher density such as port to port pitch of less than 14 mm.
A high speed connector (106) with reduced crosstalk utilizes individual connector support frames (121, 122) that are assembled together to form a block of connector units (112). Each such unit supports a column of conductive terminals (113) in two spaced-apart columns. The columns have differential signal terminal pairs separated from each other by larger intervening ground shields that serve as ground terminals. The ground shields are arranged in alternating fashion within the pair of columns and they are closely spaced together so as to define within the pair of columns, a serpentine pattern of ground shields that cooperate to act as a single “pseudo” shield within each pair of columns. The ground shields are substantially larger in width (GW) than the differential signal terminal pairs (SPW) to provide more effective signal isolation.
The present disclosure is directed to TPA connectors. The TPA connectors of the present disclosure can have a connector body that can include a plurality of cavities for receiving terminals. The TPA connectors can also include a retainer for locking the terminals in their seated position and for locking to the connector body to prevent unwanted removal thereof. The connector body can include posts with stop surfaces which can prevent the retainer from moving from a pre-lock position to a fully locked position by engaging contact surfaces on the locking arms of the retainer. The locking arms can be cantilevered and have outwardly directed projections to engage the posts for locking the retainer to the connector body. The locking arms can be deflected inwardly with a squeezing or pinching motion to disengage the contact surfaces from the stop surfaces of the posts and permitting the retainer to move to the fully locked position by pushing retainer towards the connector body. Once the projects pass the post, locking arms can be release to allow the projections to engage the posts to lock the retainer to the connector body.
H01R 13/514 - Bases; Cases formed as a modular block or assembly, i.e. composed of co-operating parts provided with contact members or holding contact members between them
The present disclosure provides an electrical connector assembly having electrical connectors that are matingly connected and disconnected by operation of a lever actuator of one of the connectors. The lever is pivotally connected to one of the connectors and includes a drive gear at an end thereof. Each drive gear has gear teeth and a cam projection. The gear teeth of the drive gear mesh with gear teeth of a follower or mating gear pivotally mounted on the housing of the connector carrying the lever. The mating gear also includes a cam projection. The other connector has cam grooves positioned to engage with each cam projection such that movement of the lever causes drive gear to pivot all the cam projections to engage cam grooves and move the connectors to a fully mated condition.
A connector includes an insulator, and a plurality of spaced apart signal contacts and return reference contacts which are held by and routed through the insulator. The signal contacts form signal pairs which include a positive signal contact and a negative signal contact. At a first end of the insulator, the signal pairs and return reference contacts are provided in two rows. At the second end of the insulator, the signal pairs and return reference contacts are provided in at least three rows. The signal pairs and return reference contacts form either a plurality of isosceles triangles or a plurality of diagonal lines.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
A card edge connector comprises a pair of mount members attached to the bottom of the insulating housing thereof. Each mount member comprises a body portion, at least one fitting nail connected to the body portion and configured to be disposed transversely for being soldered on a printed circuit board, and a tab portion connecting to the body portion and configured to be freely insertable into an aperture formed on the printed circuit board.
An electrical component mounting assembly is disclosed for attaching a cylindrical electrical component (C1) such as capacitor, diode, or resistor to a mounting member such as a printed circuit board in a horizontal or vertical orientation. The mounting assembly can have a housing (12) and a sleeve (14) placed around the electrical component which cooperates with the housing to retain the electrical component to the housing. A substantially inner cylindrical wall (32) of the housing can taper inward from an entrance (34) end to a rear wall (18) to form a tapering or narrowing chamber (30). The sleeve can have a slit that runs along the entire length of the sleeve and a tapered outer surface (28) that cooperates with the tapered chamber to clamp or compress against the electrical component as the sleeve is inserted into the housing. The lack of appreciable expansion of the housing creates a tight friction fit to secure the sleeve to the housing. The sleeve can also include a plank that is received in an opening in the housing which can be heat staked to reinforce the friction fit taper lock between the housing and sleeve. The housing can be dimensioned to mount more than one electrical component diameter size by varying the dimensions of the sleeve, and in particular the thickness of sleeve.
Control modules having connectors with compliant pin terminals for connection to a printed circuit board (PCB) are provided. The module housing can be made of a die cast metal to withstand harsh environments and have at least one open bay area for receiving a connector having compliant pin contacts for connecting the module to a PCB. A plurality of compliant pin terminal can have a push shoulders for providing an engagement surface for insertion of the terminals through passages in a connector housing, for positioning the connector relative to the die cast housing during the mounting the connector to the die cast housing, and to transfer the force away from the connector housing applied in connecting the PCB to the compliant pin tips. The connectors can be linear and exposed terminal surfaces can be sealed against the elements by a sealant. The passages of the connector housing can have at one end of the passages cross shaped portions to allow for a strengthened die tool which forms the small passages and chamfered sides at the opposite end of the passages for tight engagement with the terminals to prevent leak of sealant. The connectors can include a three-pronged compliant pin grounding terminal to increase the current flow.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
An electrical connector includes first and second connector members each having respective complementary connecting elements, with the second connector member having an annular insert adapted for tight-fitting insertion in an annular recess of the first connector member. Attached to the second member is a circular spring having inwardly directed resilient tines which engage an outer surface of the second member for coupling the two connector members together in a locked manner. Attached to and disposed about the first member is a fixed apertured outer sleeve and the movable combination of an apertured inner sleeve and a release sleeve. Insertion of the flat blade of a tool into an aligned pair of outer and inner apertures, followed by rotation of the tool, causes its blade to displace the release sleeve into engagement with the spring, bending its tines and releasing the two connector members from one another.
A connector includes a housing that is formed of a first and second section (the two sections which may be interlocking pieces) and has a hollow interior that is filled with a set of terminals. The housing pieces have a complementary engagement rail and channel that allows the two sections to be joined together in a structurally acceptable manner.
A surface mount connector for high speed data transfer application has an insulative housing with a vertically-oriented circuit card-receiving slot disposed along a front face thereof. A plurality of conductive terminals are supported by the housing so that contact portions of the terminals extend into the card slot. The terminals are formed with a thin configuration to reduce the overall capacitance of the terminals as a group as a means of regulating the impedance thereof. The terminals are supported on opposing sidewalls of the connector housing and each of the terminals includes a tail portion, a contact portion and a retention portion that engages the connector housing so that the contact portions are cantilevered in their extent within the housing.
A board-to-board electrical connector assembly includes a first connector having a dielectric housing for mounting on a first printed circuit board for receiving a plug portion of a second connector mounted on a second printed circuit board. The connectors are mateable in a mating direction. A plurality of first conductive terminals are mounted on the housing of the first connector along the receptacle for engaging a plurality of second conductive terminals mounted along the plug portion of the second connector. A first retention member is mounted on one of the connectors and is engageable with a second retention member on the other connector in the mating direction. The first retention member includes a flexible engaging portion which extends in a direction generally perpendicular to the mating direction. The second retention member includes a rigid engaging portion for engaging and flexing the flexible engaging portion to hold the connectors in mated condition.
A plug connector is disclosed that has a body portion and a circuit card extending forwardly of a mating face of the connector. The circuit card is protected in place by a protective flanges that extends forwardly from the body portion above the circuit card to protect it from stubbing and to provide a means for aligning the plug connector with a receptacle connector.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
53.
Circuit board via arrangement for differential signal connector
Stacked receptacles in a connector that each provide side-by-side differential signal contacts, are attached to a circuit board without additional width to accommodate multiple layers of differential signals by using connector wafer inserts that rotate the side-by-side positioned differential signal contacts to front-to-back contacts.
An improved heating element connector assembly includes an insulative, rectangular frame with a central opening and a plurality of conductive terminals which are press fit into openings in the frame. The terminals are spaced apart from each other lengthwise of two opposing sidewalls of the frame, and pairs of terminals are aligned with each other between the two sidewalls. A plurality of conductive strips extend across the frame opening to interconnect the pairs of terminals together. The terminals include compliant pin tail portions for receipt by corresponding holes formed in a circuit board of the assembly and deformable head portions for crimping onto the conductive strips.
A sealed optical fiber connector assembly includes a connector housing that is uniquely configured to cooperate with a cable crimp tail and one or more terminal fiber optic connectors. The connector housing has a first opening for securely retaining the terminal fiber optic connectors. An interior passage connects the first opening to a second opening at the housing's other end. The interior passage allows the crimp tail to pass through the housing. The second opening forms a shoulder so that the crimp tail, after being pushed through the first opening and passage, can be rotated and seated against the shoulder. A cable seal securely holds the crimp tail against the shoulder. This provides a sealed and substantially stronger cable attachment. The connector housing is part of removable optical connector that provides environmental sealing when mated to a corresponding adapter.
A connector includes a housing including terminals and isolating legs extending between the terminals. Vias extends through the housing to provide paths from upper and lower surfaces of the terminals. The terminals have upper portions, lower portions and via portions. The upper portions are formed on the upper surfaces of the housing, the lower portions are formed on the lower surfaces of the housing, and the via portions connect the upper portions to the lower portions. The housing is preferably formed in a two-shot molding process.
An electrical connector system includes a connector mounted on a printed circuit board and mateable with a mating connector in a mating direction at an acute angle to the circuit board. A connector housing mounts at least two sets of first and second terminals. The connector housing is mountable on the circuit board in a mounting direction generally perpendicular to the board. The first terminals have tail portions extending in the mounting direction generally perpendicular to the circuit board. The second terminals have tail portions extending at an acute angle to the mounting direction. The printed circuit board has holes for receiving the tail portions of the first terminals and elongated slots for receiving the angled tail portions of the second terminals. The slots are sufficiently long to accommodate distal ends of the angled tail portions which extend at the acute angle to the mounting direction.
H01R 29/00 - Coupling parts for selective co-operation with a counterpart in different ways to establish different circuits, e.g. for voltage selection, for series/parallel selection
A high-performance connector for optical fibers includes a cylindrical ceramic or metallic ferrule installed in a structure. This structure is positioned in a non-plastic (metallic system) base member to form a fiber holder. This overall generally cylindrical structure includes a small passageway along its central axis for holding an optical fiber. This entire structure is mounted within the non-plastic housing that includes an opening at one end thereof from which the ceramic ferrule protrudes. A cylindrical spring that is integral to the ferrule support structure and interacts with an interior surface of the surrounding structure via a secondary piece of the cylindrical structure urges the ceramic ferrule outward from the opening in the housing. The housing includes a metallic leaf-spring latch which is located on a single surface thereof, which is manually operable and used to lock the connector to an associated receptacle. Said connector; because it is manufactured of non-plastics in its structural elements (metallics and/or ceramics) has very stable optical performance criteria over a broad range of environments (both thermal and mechanical). The high performance optical connector also introduces the ability to remove the cylindrical fiber holder to directly inspect or clean the sensitive internal components (springs, internal metallic or ceramic components). In addition, the cylindrical structure provides a mean of “tuning” it to remove the effects of fiber eccentricity. When tuned, the fiber holder retains such tuning even outside the housing allowing re-assembly of the high-performance connector without loss of “tuning”.
An optical fiber terminus includes an elongated body with a passage along a central axis for receiving a portion of an optical fiber cable therethrough and an indexing section. A ferrule is secured to the body and has an end portion of said optical fiber cable therein. A collar is positioned on the elongated body and has an engagement section for engaging the indexing section. The collar is movable along the axis between first and second operative positions. In the first operative position relative rotational movement between the collar and the body is prevented and in the second operative position the collar may rotate relative to the body. A biasing member is provided to bias the collar towards the first operative position.
A printed circuit board exit arrangement is disclosed for use in high speed connector mounting applications. A ground plane has one or more open areas formed in it that surround pairs of signal vias formed in the board that are used to convey differential signals. The ground plane has a thin interconnecting strip, or web, that passes between the two vias of each pair and which divides the open areas into sub-areas, each sib-area containing a single via.
A lever type electrical connector assembly includes a first connector. A mating assist lever is pivotally movably mounted on the first connector. A slide member is linearly movably mounted on the first connector. A first cam groove and cam follower mechanism is provided between the mating assist lever and the slide member, whereby pivotal movement of the lever relative to the first connector effects linear movement of the slide member relative to the first connector. A second connector is provided with a second cam groove and cam follower mechanism between the slide member and the second connector, whereby the connectors are mated and unmated in response to rotation of the mating assist lever and resulting translation of the slide member. A latch member is provided on the slide member and is latchingly engageable with the first connector and releasable by the second connector, whereby the slide member and the mating assist lever cannot move unless the connectors are at least preliminarily mated. Complementary interengaging detents are provided between the latch member and the second connector to render at least a tactile indication that the connectors are at least preliminarily mated. Therefore, the singular latch member performs a dual function of latching the slide member and mating assist lever as well as providing a tactile feedback of the mating condition of the connectors.
A surface mount connector for high speed data transfer application has an insulative housing with a circuit card-receiving slot disposed along a front face thereof. A plurality of conductive terminals are supported by the housing so that contact portions of the terminals extend into the card slot. The terminals are formed with a thin configuration to reduce the overall capacitance of the terminals as a group as a means of regulating the impedance thereof. The terminals are supported on opposite faces of the connector housing, specifically the top and bottom faces thereof, and each of the terminals includes a tail portion, a contact portion and a retention portion that engages the connector housing so that the contact portions are cantilevered in their extent within the housing.
A memory card connector is provided for receiving a memory card having a plurality of conductive contacts. An insulative housing mounts a plurality of conductive terminals. A metal cover has a receptacle for receiving the memory card. A pivot mechanism is operatively associated between the cover and the housing to mount the cover for pivotal movement between an open position to allow the memory card to be received on the cover and a closed position bringing the contacts of the memory card into engagement with the terminals on the housing. The pivot mechanism includes a mounting portion at one end of the housing and a pivot projection at one end of the cover. A metal bracket is disposed about the mounting portion and includes a pivot socket for receiving the pivot projection.
An integrated wall stacked shielded cage assembly is provided for electrical connectors. The cage assembly has multiple bays for receiving electrical components. At least two arrays of bays are provided, and the arrays are separated by an intervening space. Assembly is carried out with a plurality of spacers which interlock with a plurality of intermediate walls, and cover structures are provided in order to complete EMI shielding.
A card eject system is provided for a memory card connector which includes a metal housing defining a receiving space for receiving a memory card inserted into the receiving space in an insertion direction through an insert opening generally at a front end of the housing. An insulating terminal socket is disposed at a rear end of the metal housing opposite the insert opening. A plurality of conductive terminals are mounted in the terminal socket for connection to the memory card. A pair of independently operable card eject mechanisms are disposed generally at opposite ends of the terminal socket for engaging the memory card at two spaced locations transversely of the insertion direction.
H01R 12/00 - Structural associations of a plurality of mutually-insulated electrical connecting elements, specially adapted for printed circuits, e.g. printed circuit boards [PCB], flat or ribbon cables, or like generally planar structures, e.g. terminal strips, ; Coupling devices specially adapted for printed circuits, flat or ribbon cables, or like generally planar structures; Terminals specially adapted for contact with, or insertion into, printed circuits, flat or ribbon cables, or like generally planar structures
A small size connector has an insulative housing and two edge card-receiving slots disposed in a stacked arrangement with in the connector housing. Each slot receives an edge card of an electronic module therein. The slots support conductive terminals that extend from a plurality of individual terminal assemblies. The terminal assemblies include clip members that engage an opposing shoulder formed on the interior of the connector housing. The front face of the connector is provided with various engagement openings that receive engagement members of light pipe assemblies and shielding assemblies, so that when assembled, the connector, shield, terminal assemblies and light pipes all act as a single, integrated component.
A light pipe assembly is provided for use with small form factor style connectors of a dual row, stacked configuration. The assembly includes two pairs of light pipes, each of which is provided with integrated support members. The support members include members that engage opening disposed on the face of the connector, and the pairs of pipes are arranged so that one pair is supported within the other pair of pipes in a nested type of arrangement.
G02B 6/10 - Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings of the optical waveguide type
H01R 3/00 - Electrically-conductive connections not otherwise provided for
G09F 13/26 - Signs formed by electric discharge tubes
G02B 6/00 - Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
68.
Grouped element transmission channel link termination assemblies
Termination assemblies for terminating high-frequency data signal transmission lines include housings with one or more cavities that receive ends of the transmission line therein. The transmission line typically includes a dielectric body and a plurality of conductive elements disposed thereon, with the plurality of conductive elements being arranged in pairs for differential signal transmission. The termination assemblies, in one embodiment include hollow end caps that are formed from a dielectric and which have one or more conductive contacts or plated surfaces disposed on or within the cavity so that they will frictionally mate with the conductive traces on the transmission line. In another embodiment, a connector housing is provided with a center slot and a plurality of dual loop contacts to provide redundant circuit paths and low inductance to the termination assembly. A coupling element may be utilized in the slot to achieve a desired level of coupling between the termination contacts.
A low profile blade receiving electrical connector is provided for mounting on a printed circuit board. The connector includes a dielectric housing having a blade insertion cavity which extends generally parallel to the printed circuit board. A pair of generally U-shaped terminals are mounted on the housing, with one terminal nested within the other terminal. Each terminal includes a pair of side walls joined by a connecting beam. The side walls are generally perpendicular to and electrically connected to the circuit board. The connecting beams are generally parallel to the circuit board. The connecting beams of the two terminals are spaced from each other for receiving a terminal blade therebetween. The connecting beams have contact portions exposed in the blade insertion cavity of the housing for engaging opposite sides of the terminal blade.
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