Abstract: A terminal fitting (T) has a pair of crimping pieces (17A, 17B) that extend up from opposite side edges of a bottom wall (11), and are crimped into connection with a wire (W) placed on the bottom wall (11). The crimping pieces (17A, 17B) are offset to each other in the longitudinal direction of the wire (W). Restricting portions (18A, 18B) are formed on the bottom wall (11) and restrict a lateral displacement of the wire (W) against pushing forces acting on the wire (W) from the crimping pieces (17A, 17B) in directions normal to the longitudinal direction of the wire (W) while the crimping pieces (17A, 17B) are being crimped into connection with the wire (W).

Abstract: A press-connecting terminal (1) includes a plurality of press-connecting blades (9, 10). A gap between the pair of press-connecting blades (9) is smaller than the diameter of the electric wire (7), and a gap between the pair of press-connecting blades (10) is smaller than a diameter of a conductor (7b) of the electric wire (7). When the electric wire (7) is press-fitted relative to the press-connecting blades (9, 10), an end portion of the electric wire (7) is held by the pair of press-connecting blades (9) while the conductor (7b) is press-connected to the pairs of press-connecting blades (10) in electrically-contacted relation thereof. In so far as a variation in diameter of the electric wire (7) is within a predetermined range, the good press-connecting operation is effected, and the press-connecting terminal (1) has enhanced versatility.

Abstract: The present invention relates to a connecting device adapted for connecting an electrical cable, which includes wires, to a similar or identical electrical cable. The device includes a housing having a connecting end, which is adapted to be removably connected to a connecting end of an identical connecting device, and an opposite end, which includes a slot for receiving an electrical cable inserted into the housing. The housing also includes a receiving portion at the connecting end for receiving a plurality of connecting blades adapted to engage blades of an identical device and to receive wires of an electrical cable inserted into the housing through an open side thereof. A cover is provided for covering the open side of the housing.

Abstract: A blade type terminal fitting (7) has blades (14A, 14B) which cut through wire insulation (16) to contact a wire core (17). To prevent widening of the blades (14A, 14B) as the wire is pressed in, a jig (18) includes pressing members (20) to prevent outward movement of the blades (14A, 14B). A more secure electrical connection is obtained.

Abstract: An insulation displacement contact terminal has a pair of side walls, an a pair of pressure contact blades that are mutually opposing and formed by partial bending away from the side walls. When an insulated wire is inserted between the pressure contact blades along a first direction, edges of the pressure contact blades bite into the insulation of the insulated wire so as to make contact with the inner core wire of the insulated wire. The pressure contact blades each have a curved part that is continuous from the side walls, and each curved part has a radius of curvature such that when the pressure contact blades are bent from the side walls and when a pulling force is applied to the insulated wire in a second direction that intersects with the first direction, concentration of bending stress acting on the pressure contact blades is relieved.

Abstract: A contact wire connector includes a housing connected to an insulation displacement contact (IDC) and a contact sleeve. A strain relief member is connected to the housing opposite the IDC. The contact sleeve connects to a pin of a substrate and the IDC connects to an insulated wire which establishes an electrical connection between the substrate and the insulated wire. The strain relief member engages the insulated wire to maintain the electrical connection in an unstrained state.

Abstract: The present invention provides a slot type connecting terminal (40) which may make a connection between the conductor material (Wc) of the insulated conductor (W) and the slot (42) by penetration into the insulation of conductor and contacting the conductor material therewith in the area at least half a circle of the arcuate, by weighing down of the conductor after setting the insulated conductor into said slot (42) of terminal (40), and the slot having semi-circular knife edge profile in at least the lower part thereof will penetrate and make a contact area between them. The cover (20) and the terminal block body (30) have respective conductor receiving groove (23, 33) to securely hold the connected conductor in place. Said cover has a scoring line (24) formed in transverse direction to the length of said cover by cutting off a part of its height leaving thin film at the scoring line such that said scoring line will act as a snap hinge (25).

Abstract: A crimp connector, particularly for insulated electrical lines, the crimp legs in the terminal region are formed with inwardly torn-out retaining lugs. In configurations with a plurality of identical terminal members, lines of different cross sections can be processed at all the terminal members at the same time with one processing tool and without crimping stroke adjustment.

Abstract: A contact terminal includes an electrically conductive plate including a base plate; an electrical contact section, engageable with another terminal, formed at a front end portion of the base plate; a wire clamping section, for clamping a wire thereto, formed at a rear end portion of the base plate; an electrically conductive section formed between the electrical contact section and the wire clamping section, the electrically conductive section including first and second side walls and a bottom wall which is a part of the base plate and is formed between the first and second side walls, the first and second side walls which have first and second blades extending inwardly to confront each other so as to define a slot therebetween; and a step portion formed in the base plate between the electrical contact section and the wire clamping section so that a section of the base plate in the step portion in the front-to-rear direction is non-linear.

Abstract: An electric-wire connecting structure for press-connecting an electric wire to press-connecting blades of a press-connecting terminal. In such a structure, the electric wire press-connected to the press-connecting blades of the press-connecting terminal is bent toward a fitting mount such as a connector housing with the press-connecting blades as boundaries. The fitting mount fitted with the press-connecting terminal is provided with electric-wire holding members for holding the bent electric wire, whereby a conductor of the electric wire is kept in contact with the press-connecting blades of the press-connecting terminal while tension is being applied to the press-connecting blades.

Abstract: The invention relates to an electrical connector with a housing (1) of insulating material and a metal contact element (2) fittable in the housing (1). The contact element has a crimp contact region (4) to contact a first cable end (11) and a cutting clamp contact region (3) to contact a second cable (12). Such an arrangement is not suitable for contacting cables of different diameters via the cutting clamp contact region. According to the invention, the cutting clamp contact region (3) has two tension-relieving regions (5, 6), with the cutting clamp blades, which are fitted opposite one another in pairs (7, 8, 9, 10), arranged between them. Two pairs of cutting clamp blades (7, 10) are provided for small-diameter cables and two pairs (8, 9) are provided for large-diameter cables. The pairs of cutting clamp blades (8, 9) for small-diameter cables are arranged between those for large-diameter cables.

Abstract: An insulation piercing terminal is so designed that, by press working a piece of metal plate, an electrical contact section which is engaged with a mating terminal, and a wire clamping section are formed respectively at the front end portion and at the rear end portion, and an insulation piercing conductive section is formed between those sections, the insulation piercing conductive section being U-shaped in section, having right and left side walls, and a bottom wall, and the right and left side walls of the insulation piercing conductive section are partially cut and bent inwardly to form a pair of right and left insulation piercing blades which defines an insulation piercing slot.

Abstract: An insulation piercing terminal is so designed that a piece of thin metal plate is pressed in such a manner that an insulation piercing plate having a pair of right and left insulation piercing blades each pair of which defines an insulation piercing slot, is bent raised against a belt-shaped bottom plate which is extended in a front-to-rear direction, and the pair of insulation piercing blades are located near the bending lines. In the insulation piercing terminal, reinforcing walls are provided at both ends of each of the bending lines to prevent the insulation piercing blades from being displaced when the wire is pushed therein.

Abstract: A press-connecting connector in which terminals are mounted respectively in terminal receiving chambers of a housing, and a wire is pressed-connected to each of the terminals borne by a bottom plate portion of the terminal receiving chambers. A main portion of the bottom plate portion is defined by a reduced-thickness portion, and a rear end portion of the bottom plate portion is defined by a thickened portion larger in thickness than the reduced-thickness portion. Preferably, the reduced-thickness portion is continuous with the thickened portion through a step portion, and each of the terminals includes a press-connecting portion, and clamping piece portions which are continuous with the press-connecting portion through a base plate portion, and also the base plate portion has a bent portion which conforms to the step portion.

Abstract: A terminal rising-up preventing structure includes: a housing; terminal receiving chambers formed in the housing and separated by partitions so as to be disposed side by side; sloping rear plate portions formed in bottom plate portions of the terminal receiving chambers so as to extend from rear ends of the bottom plate portions in a direction of insertion of terminals, respectively; recess portions formed in rear end surfaces of the bottom plate portions, each of the recess portions having a width smaller than a width of one of the terminal receiving chambers but larger than a width of one of the sloping rear plate portions, the recess portions adjoining surfaces of the bottom plate portions via the sloping rear plate portions respectively; terminals installed into the terminal receiving chambers respectively; bent plate portions formed by partially bending the terminals toward the bottom plate portions and inserted into the sloping rear plate portions respectively; and a pair of projecting portions formed o

Abstract: A press-connecting terminal to which an insulated wire is press-connected. A pair of press-connecting blades are formed on opposite sides of the press-connecting terminal, and are arranged alternately at a predetermined interval. Each of the press-connecting blades has a contact portion which is held in contact with a side surface of a partition wall of a connector housing, and the wire is press-fitted into a space between the press-connecting blade and the side surface of the partition wall, thereby press-connecting the wire to the terminal.

Abstract: An enclosure (400,500) having a pair of covers fastenable together to close about and seal a cable splice between end portions of a pair of multiconductor cables. At least one routing channel (418 or 420;528) is provided at a first end (406,506) and a single routing channel (424;536) at the second end (408,508), with a splice-receiving region (454) provided adjacent inner ends of the routing channels. Axially- and laterally-staggered outermost and innermost embossments are associated with each routing channel to establish an interruption in a linear path between the cable exits and a grounding region for the multiconductor shielded cables, so that the cables must be substantially bent to course around the embossments in serpentine fashion, defining cable strain relief. A partitioned region (552) in enclosure (500) accommodates receipt of a spliced connection of a pair of single-conductor coaxial cables into a linear routing channel bypassing the grounding region for multiconductor shielded cables.

Abstract: An IDC branch connector comprises an IDC connection section positioned on a central carrier strip. Strain relief sections extend from either side of the carrier strip such that a wire terminated to the IDC section is securely held on either side. The IDC section comprises first IDC slots positioned between second larger IDC slots such that a large range of wire sizes can be terminated thereto. The branch connector is overmoulded by an insulative housing, whereby the carrier strip can be maintained between a plurality of connector modules depending on the number of wires to be interconnected.

Abstract: The multiple contact pin holder of a modular connection device for telephone or weak current systems includes a device for solderless insulation displacement wiring which are provided with at least one pivoting cover which can be pressed down onto the body of the contact pin holder and from the contact side of which ribs extend downwards. These ribs enter the body's slits for receiving wires when the pivoting cover is pressed down onto the body and press the inserted wires into the insulation displacers of the contact pins. The slits for receiving wires are provided with lateral retaining projections arranged above one another. At least one retaining projection is located near the spot where the wires are inserted for the purpose of positioning the inserted wire, and the other retaining projection is located near a region of the insulation displacer for the purpose of fastening the wire which is pressed into the insulation displacer.

Abstract: An electrical contact assembly (80) includes an electrical contact (10) with a contact section (20), IDC section (30) and a relief section (40). The electrical contact (10) is disposed in a dielectric housing (60) having a rotatable stuffer member (70) for pushing a wire (12) into electrical engagement with IDC section (30). Force vector F is a separating force which will cause the strain relief section (40) to deflect and thereby more firmly grip the wire (12) between a retention gripping portion (46) and a retention surface (76) of stuffer (70). Any separating force will cause stop member (27) of contact section (20) to engage a shoulder (62) of housing (60) thereby causing a shearing action as an edge (28b) engages the stop member (27).

Abstract: In connecting a center contact and an outer contact of a terminal contact set to a center conductor and an outer conductor of a coaxial cable at its cable end, the center and outer contacts are formed by punching an electroconductive plate, as a contact frame, integral with each other and with first and second frame portions connected to each other by bridge portion and carrying center and outer contacts, respectively. After the center and the outer contacts are connected to the center and outer conductors, respectively, those contacts are separated from the first and second frame portions. The center contact comprises first press-fit portions to be press-fitted to the center conductor and first holding portion to hold a first cover of the cable insulating the center conductor from the outer conductor. The outer contact (2) comprises second holding portion for holding a second cover of the cable insulating and covering the outer conductor, and second press-fit portion to press-fit to the outer conductor.

Abstract: An electrical connector includes a dielectric housing having a conductor-receiving groove defined at least in part by a pair of side walls between which an elongated insulated conductor is receivable essentially normally of its length. An electrical contact has an insulation displacement termination section disposed in the groove. A pair of inwardly-directed wings are provided in the groove and spaced from and facing one another to provide a slot therebetween. The conductor is movable through the slot past free ends of the wings into insulation-displacement termination with the termination section of the contact. A pair of retention ribs face inwardly of the side walls of the groove essentially below the wings for embracing and thereby retaining the conductor terminated by the contact.

Abstract: An electrical terminal comprises a mating portion, a wire connecting portion and a lead strain relief portion. The lead connecting portion comprises insulation slitting edges and indents for penetrating the insulation of an insulated lead to make electrical connection with the metal core of the lead. The lead strain relief portion comprises three ears upstanding from respective sidewalls projecting from opposite edges a base. Each ear is formed with triangular shaped barb projecting inwardly of the strain relief portion and having a sharp edge from which extends an end edge facing the wire connecting portion. The base of the strain relief portion has a quadrangular array of spurs having sharp apices projecting into the strain relief portion.

Abstract: An electrical connector is provided for commonly connecting a plurality of conductors, such as insulated conductor wires. An insulating housing has a wire-receiving face, a base and generally parallel side walls extending between the base and the face, defining an elongated cavity therewithin. A strip of terminal devices is assembled in the elongated cavity. Each terminal device includes at least one insulation-displacement wire-terminating slot for reception of an insulated conductor wire. Wire-admitting slots are provided in each housing side wall aligned with the wire-terminating slots in the terminal devices. Each wire-admitting slot includes a first, wire-restraining section for temporarily holding an insulated conductor wire prior to insertion into the respective wire-terminating slot, and a second, wire-securing section for finally holding the insulated conductor wire when inserted into the wire-terminating slot.

Abstract: An IDC terminal is shown comprising a contact body and a back-up spring having an IDC back-up portion for resiliently supporting the IDC contacts. The back-up spring further has a contact spring section comprising bowed-in resilient beams supported on both ends to cavities respectively that are supported to side walls of the contact body. The contact spring section forms a top wall of the contact and provides a very high spring force onto a complementary male tab for producing high contact pressure. The IDC back-up portion comprises a central reinforcing rib for increasing the spring strength thereof, whereby positioning the IDC back-up spring within the IDC contact section, provides for a very compact design. Due to the use of a back-up spring, the contact material can be optimally chosen. Advantageously therefore, the terminal is compact yet has a high current carrying capability and is well adapted for cost-effective automated assembly.

Abstract: Pressure welding terminals are disposed on terminal receiving portions of a housing. The pressure welding terminals are provided with expanded portions and press-fitting slots. The expanded portions are to receive the wires. The press-fitting slots are electrically connected with wires by press-fitting said wires. Temporarily holding portions are provided with flexible portions and wire holding holes. The flexible portions temporarily hold the wires in space between the expanded portions. The wire holding holes are formed on the housing and are capable of receiving tips of wires. The flexible portions are provided with pairs of lances and pairs of flexible wings. The lances extend from terminal receiving portions of the housing and disposed on both sides of the wires. The flexible wings extend from the lances and hold the wires in spaces between the inclined edges.

Abstract: An insulation displacement terminal is provided for terminating a conductor of an insulated electrical wire. The terminal has a channel-shaped terminating section of a generally U-shaped cross-section provided by a pair of side walls joined by a base wall. A U-shaped distal end of the terminating section includes a conductor-receiving insulation displacing slot extending into each side wall generally parallel to the base wall. Reinforcing flanges extend along free edges of the side walls of the terminating section to prevent collapsing thereof when the conductor is forced into the slots.

Abstract: An electrical contact (50) includes a forward spring contact portion (51) and an integral insulation displacement portion (60) having slots (S) formed in blades (61, 62) which terminate an insulated wire (17) and, axially spaced therefrom, a wire strain relief portion (64) which includes a resilient support having legs (63, 65) supporting the wire as embraced by crimped arms (66, 68) to hold the wire axially in a straight line relative to the slots (S) to provide a controlled height of the wire in the insulation displacement portion (60) of the contact.

Abstract: An electrical terminal is provided for insulation displacement termination of an electrical wire having a conductor core surrounded by an insulating sleeve. The terminal includes a forward mating end for engaging a complementary terminal and a rear terminating end for terminating the electrical wire. The rear terminating end includes at least a forward insulation displacement section, a forward strain relief section behind the forward insulation displacement section, a rear insulation displacement section behind the forward strain relief section, and a rear strain relief section behind the rear insulation displacement section. The rear terminating end of the terminal is generally U-shaped defining a bottom wall and space side walls. The strain relief sections are formed out of the spaced side walls, and the insulation displacement sections are formed out of the bottom wall.

Abstract: An electrical connector (100') having a plurality of contacts (10) positioned in a dielectric housing (20') for terminating respective electrical wires (1) and a plurality of wire retaining grooves (70, 80) on the housing (20') for receiving and retaining respective electrical wires (1), each groove (70, 80) being provided with projections (72a, 72b, 82a, 82b) on respective sidewalls (74, 84) wherein the projections (72a, 72b, 82a, 82b) are positioned at different depths relative to each other.

Abstract: A stamped and formed terminal for use in establishing an insulation displacemnt termination to wires extending in either of two orthogonal directions is disclosed. The stamped and formed terminal has a box-like conductor terminating portion in which wires can be inserted into slots in opposed plates on two of the four sides. The other plates can then be deformed about weakened sections to overlap a conductor inserted into plates on the adjacent sides to provide strain relief to prevent removal of the wire from the slots. Interconnection to other terminals can then be made to a termination portion which will have the same orientation relative to the insulative body regardless of the direction of the conductors.

Abstract: An insulation displacement connector (IDC) includes a pair of spaced, coextensive U-shaped beams fixed to each other along one pair of the beam portions of the beams in a mounting plane, the other pair of beam portions being free to move away from each in a contact plane in response to a wire and its insulation being forced into a wire-receiving channel or groove formed between the U-shaped beams. The IDC can be provided with mounting legs for mounting on a PC board, or on the body of a connector terminal. By curving at least one of the portions of the U-shaped beams a preset can be imparted to the contact of the IDC. The contacts can be shaped to receive a curve or cable, an electrical tab, a fuse or the like. When the IDC is used to terminate a wire or cable, it is preferably provided with a strain relief slot to minimize axial or longitudinaly forces of the wire or cable at the points where the insulation is displaced and electrical contact is made with the IDC.

Abstract: A screwless connector is provided for electrically connecting an RJ type connector with two or more insulated conductors. An exemplary embodiment of the invention includes a base having spaced grooves with pronged retainers straddling the grooves at each end for holding, indexing, and providing strain relief to conductors. It also includes a top assembly which contains fork-shaped insulation displacement contacts (IDC) in electrical communication with an integrally housed receptacle for an RJ type connector. The top assembly is mated to the bottom assembly and held by detents. The insulation is thereby pierced by grooves of the insulation displacement contacts which are prepositioned in the top assembly, and electrical interconnection is established between the conductors and an RJ type connector placed in the receptacle.

Abstract: A board-in type contact-connector comprising an insulating housing, a plurality of contacts separately housed in the insulating housing. Each contact is adapted to be connected to a printed circuit board, and includes two pairs of connecting straps having wire-receiving slots, with the straps in each pair being axially oppositely directed and each pair being spaced from the other. A pair of oppositely directed crimpable tabs are provided for crimping the wire received in the wire-receiving slots, with the crimpable tabs being situated between the respective pairs of wire connecting straps.

Abstract: A device for connecting a wire to a terminal of an electric motor comprises a planar portion having means for gripping a terminal. A slot is formed in the planar portion and straddles and grips a core of the wire, thus electrically connecting the wire to the terminal. The wire is held between a support and a clamping portion on the device.

Abstract: The invention relates to a cutting and clamping sleeve contact for contacting a cable wire laterally to the sleeve axis. The sleeve contact exhibits at least one clamping through slot at the periphery of the sleeve and a cutting and clamping contact in the interior of the sleeve. Wall pieces are cut free at the wall of a sleeve. They provide a one-piece sleeve contact suitable to contact cable wires having varying diameters and multi-stranded conductors. The wall pieces are also made of a metal material, and are bent into the interior of the sleeve and form contact legs for forming the cutting/clamping contact.

Abstract: An insulation displacement terminal assembly comprises an insulation displacement terminal having a U-shaped insulation displacement portion which has two plate sections that are connected by a bight and insulation displacement slots that extend through the bight and down into the plate sections in aligned pairs of insulation piercing slot portions. A plurality of insulated electric cables are disposed in the insulation piercing slot portions and retained therein to form a sub-assembly. The sub-assembly is assembled into a slide-in insulator housing portion which has slots in its opposed side walls through which the insulated electric cables of the sub-assembly extend and a retention tongue that is cantilevered from a back wall of the housing portion and runs parallel to the slotted side walls to project between the insulated electric cables and the bight of the insulation displacement terminal to retain the electric cables down in the insulation displacement slot portions.

Abstract: A junction block for tap-in connection to a continuous two-conductor line comprises a removably mutually engageable base and a cover, defining axially aligned wire entrance and exit apertures, and a passage admitting a plug. Conductor positioners each define a conductor path between the apertures; insulation displacement means are positioned for cooperative interaction with the positioners. Each displacement means is electrically connected with a contact spring adjacent the passage.A positioner and its cooperating displacement means together define a conductor engagement position generally on a level with the wire apertures, so that tension on the wire external to the block does not tend to pull the conductors out of the displacement means. The block has cooperating alignment means mutually engageable during assembly positively to align the positioners with the displacement means before the conductor insulation is engaged, and to prevent misassembly of the block components.

Abstract: The connector has a body part (4) of good electrical conductivity and which is of U-shaped cross section. A pair of wings (18) extend from one or both ends of the side walls (16) of the body part (4) and define a wire slot (20). The wings (18) are not connected to the base (12) of the body part (4), so as to allow the side walls (16) of the body part (4) to be deflected away from each other. A U-section spring (10) receiving the part (4), and being separated therefrom, resiliently restrains deflection of the side walls (16) of the body part (4) away from each other, when a wire (W) is inserted into the wire slot or wire slots (20). The spring part (10) stores energy so as to maintain the integrity of the electrical connection between the edges of the slot or slots (20) and the core (C) of the wire (W), despite temperature cycling. The spring characteristics of the spring part (10) can be selected to achieve a desired contact force.

Abstract: A multiconductor flat cable electrical connector for terminating a plurality of multiconductor flat cables, which comprises a plurality of contacts each having a contacting portion for contact with a contact of the mating connector and a piercing portion for connection with a conductor of said flat cables; an insulating housing for mounting said contacts in such a manner that said piercing portions may project from the top of said insulating housing at least two staggered rows; a cable retainer having first fastener means for joining said cable retainer to the top of said insulating housing, a retention channel on one side, a termination channel on its bottom in communication with said retention channel for retaining the end portions of said flat cables, and a plurality of slots in said termination channel for receiving said piercing portions projecting from the top of said insulating housing; and a cable guide having second fastener means for joining said cable guide to the top of said cable retainer for sep

Abstract: The contact elements of the plug connector are engaged into chambers of an insulating strip by means of a conductor terminal component which has cutting and clamping contact edges. The chambers are only open towards a flat side of the strip, so that a conductor can be pressed into the contacting slots of the cutting and clamping contact points from the open side of the chambers. This allows an uncomplicated, orderly connection of the conductor to the contact elements after the connection of the contact elements to the insulating strips. A plurality of such strips can then be inserted into a housing and combined with the latter to form a multi-row, e.g. three or four row, plug connector.

Abstract: This invention relates to terminations (e.g., connectors) for coaxial cables, and more particularly to terminations for cables made up of several co-planar signal wires, each of which has its own coaxial shield including a ground wire in the plane of the signal wires.

Abstract: An electrical connector apparatus (10) is described having a housing with a first end (12) for releasably receiving a terminal end (200) of a jack and a second end (14) for receiving a twisted pair cable (300) having a pair of conductors (301, 302). The housing includes first and second intermediate electrical connectors (70, 80) having first ends (74, 84) for electrically contacting first and second exposed electrical contacts (206, 208) of the terminal end (200) when the terminal end (200) is secured to the housing in predetermined alignment. The first and second intermediate electrical connectors (70, 80) also include second ends (76, 86) having insulation displacement connectors (110) for providing electrical connection between insulation clad conductors (301, 302) of said twisted pair cable (300).

Abstract: An electrical connector module having flexible sidewall bridges and sidewall shoulders for snap mounting the module in a panel, a tool for inserting wires in the module and a connector panel mount is disclosed. The module is formed from a plurality of subhousings arranged in two rows with each subhousing supporting a split cylinder concentrically therein. The subhousings include diametrically opposed slots with one wire engaging lipped slot aligned with the slot in the split cylinder and the other slot aligned with a cutting blade provided on the split cylinder diametrically opposed to the split cylinder slot. Each of the subhousing slots are aligned transversely to the rows and paralled with one another such that a series of wires may be laid side by side in parallel in the subhousing slots over the split cylinder for insertion by a tool in another series of operations. The housings are snap mounted in a panel member which includes an aperture sized to receive the housing.

Abstract: A low profile, wide body modular plug and a multi-conductor shielded cable for termination therein and use with a low profile modular jack adapted to be mounted on a printed circuit board in a closely-spaced array. The low profile design of the plug features latching arms mounted on the outer side walls which mate with cooperating shoulders formed on the inner side walls of the jack. The plug preferably includes a flip-top door formed in the bottom wall thereof for permitting greater accessibility to the internal cable-receiving cavity of the plug. The flip-top door preferably includes a plurality of cable-engaging projections for increasing the pull-out or retention force of the cable and plug assembly. The plug is particularly designed to receive a multi-conductor shielded cable which includes three round shielded wire assemblies arranged in a planar array within an outer encapsulating jacket.

Abstract: A motor brush assembly comprises a stamped and formed lead frame including electrical terminals at spaced locations and a dielectric housing member secured onto the lead frame with the electrical terminals being exposed and accessible for electrical termination to electrical power wires and lead wires of capacitors and inductors. Cavities are located in the housing member in which the inductors are disposed. Metal brush holders are positioned in brush holder locations on the housing member and lugs thereof are electrically stapled onto the lead frame. Openings are located in the housing member exposing severable sections of the lead frame separating the lead frame into separate brush circuits. If inductors are to be disposed in the circuit path between the terminated power leads and the brush holder locations, the respective severable sections are also severed which interconnect the lead frame between the associated pairs of terminals corresponding to each inductor.

Abstract: A multigauge-multiwire terminal includes a first split cylinder portion providing a pair of jaws defining a continuous wire receiving slot and a second rib cage portion providing a plurality of opposing resilient ribs aligned to provide a discontinuous slot. In use a wire is inserted laterally of its length into the continuous slot, the jaws of which slice through the insulation on the wire and grippingly engages it. The insertion of another wire displaces the first inserted wire into the discontinuous slot in which it is gripped by the opposing ribs which generally provide for a three point contact with the conductor portion.

Abstract: A connector for a group of insulated conductors is disclosed comprising flat contact plates (14) for contacting the conductors (7) and suitable for plugging into slots (15) in the connector's casing (1), each plate provided with three contact teeth (16) which are offset laterally with regard to each other by bevelling (30) and joined together into one piece with contact strips (21) which provide contact surfaces in a plastic component for an electric plug. Narrow intermediate strips (20), provided between the contact plates and the contact strips, create heels, by means of which the contact plates rest on the plastic component. Transitional sections (25) between the contact strips and the intermediate strips create additional heels, supported within the plastic component, whereby the bent intermediate strips--carried freely through chambers--mechanically uncouple the contact plates from the contact strips.