Abstract: A piercing electrical connector includes a wire end connector. The wire end connector has a wire end body, a wire end terminal, and a wire cover engaged with the wire end body. The wire cover has a wire holding hole, and the wire end terminal has a piercing portion. The wire cover further has a clasping plate, a clasping arm and a first clasping head. The wire end body has a clasping groove, a clasping hole, a protrusion located in the clasping groove, a pre-locking groove and a locking groove that communicate with the clasping hole. When the wire end connector needs to be transported, the first clasping head extends into the pre-locking groove, and the protrusion abuts against a free end of the clasping plate so that the wire cover and the wire end body are pre-assembled together, and the piercing portion does not pierce a cable wire.

Abstract: An actuator may include a movable body, a support body, a connection body having at least one of elasticity and viscoelasticity, and a magnetic drive circuit having a coil provided in one side member of the movable body and the support body, and a permanent magnet provided in the other side member to vibrate the movable body. The one side member may include a coil holder and a power feeding circuit board fixed to the coil holder in a state that one side face of the circuit board faces an outer side, and the one side face may have a land connected with a coil wire structuring the coil. The circuit board may be fixed to the coil holder in a state that the one side face is retracted from an end face of the coil holder, and the coil wire may have a slack portion fixed to the one side face.

Abstract: A connector for receiving a ribbon cable is provided. The connector includes a housing including an open top, a cable organizer, and a cover. The cable organizer is configured to be positioned within an interior of the housing and configured to receive the ribbon cable upon an upper surface thereof. The cover is configured to selectively cover the open top of the housing to enclose the cable organizer within the interior of the housing. The cover is coupled to the housing and includes a latch configured to engage the housing and the cable organizer and move in a both vertical direction relative to the housing and rotate relative to the housing.

Abstract: The size of an electronic component is made reducible so as to match a downsized connection object. The electronic component includes a first pin terminals, a second pin terminals, and an external connection case having a retention wall for retaining the first pin terminals and the second pin terminals. The first pin terminals and the second pin terminals have connector-connection portions and external connection portions, respectively. Clearances between adjacent connector-connection portions are made larger than corresponding clearances between adjacent external connection portions.

Abstract: A junction box adapted to provide an electrical connection to an electrical wire attached to a photovoltaic panel. The junction box has a lower portion which has an entry slot to allow entry of the wire into the junction box and a raised protrusion over which the wire is bent and formed to be substantially in the same shape as the raised protrusion. The junction box also has a clamp adapted to be attachable to said lower portion, whereby the clamp holds the wire in place for providing the electrical connection. The wire is preferably bus ribbon. The lower portion preferably has an elastic polymeric element disposed between the raised portion and the wire. The raised protrusion may have an elastic polymeric element.

Abstract: In the prior art, there is the disadvantage that automatic population methods for printed circuit boards are worthwhile only for large numbers. On the other hand, individual solutions and small series are expensive and complicated and are currently often implemented in manual work. The present disclosure provides a device which facilitates the population of a printed circuit board economically, even for small series. This is achieved by a device which has a contact carrier having contact elements. The device can firstly be installed on printed circuit boards in high numbers in an automated manner and, secondly, permits the connection of electric components and/or electric cables with only little manual effort.

Abstract: A method to manufacture an electrical connection assembly includes: preparing a wiring material (10) that has conductors and an insulation coating, and preparing a connector (CN) including terminals (20) each having an outward projecting portion (24) with a conductor connection surface (27a) and an insulating housing (30). The method proceeds by setting solder on the conductor connection surfaces (27a) and then removing the insulation coating covering parts to be connected from surfaces of the conductors by melting or dissolving the insulation coating. The method also electrically connects the conductors of the parts to be connected to the conductor connection surfaces (27a) by the solder by heating the parts of the respective conductors to be connected together with the solder while holding a state where the conductors of the wiring material (10) are arrayed at intervals from each other in an array direction.

Abstract: An electronic device includes a housing having an opening, a connection terminal located in an opening in the housing, and a terminal cover including a first resin member having a first surface facing the connection terminal and a second surface located opposite to the first surface and a second resin member located on the second surface. At least a portion of the second resin member covers a depression located on an outer peripheral portion of the first surface of the first resin member.

Abstract: An apparatus that is used to enclose and stack electrical components in varying configurations. The configurations are achieved by easily manipulating the way the apparatus is stacked. The stacking of apparatus' is achieved easily, and with little cost in manufacturing.

Abstract: The objective is to reduce stress applied to a connector tail. The connector tail is configured such that a slit of length L having an opening end is formed at one end side, a leading end part is branched by the slit into at least a first connection portion and a second connection portion, and when the distance between the first connection portion and the second connection portion while the first connection portion and the second connection portion are deformed to form an angle ? is set as H, the following relationship holds: H/L?0.07 (where the units of H and L are millimeters and ??4).

Abstract: A light assembly includes at least one power pack, multiple wire units, multiple connection parts and multiple light units. The at least one power pack includes a first sensor and a first locking portion. The wire units each have a first wire and two second connectors. A second connection portion is connected to each of two ends of the first wire, and connected to the first connection portion. The second connectors each are threadedly connected to the first locking portion. Each connection part is between the two wire units. The connection parts each have at least three third connection portions which are connected to the second connectors. The multiple light units are respectively connected to the multiple connection parts. The light units each include a fourth connector and a light part which is connected to the third connection portion by the second wire.

Abstract: A board mount electrical connector (3) includes an insulative connector housing (1100) including a longitudinal bottom wall (1102) defining a plurality of contact openings (1104) for receiving a plurality of contacts (1200), first and second side walls (1106, 1108) extending upwardly from the bottom wall at opposing sides thereof, first and second end walls (1110, 1112) extending upwardly from the bottom wall at opposing ends (1102c, 1102d) thereof, first and second pairs of latch openings (1114, 1116) at opposing ends of the bottom wall, and first and second protrusions (1154, 1156) extending upwardly from the bottom wall and disposed between respective first and second pairs of latch openings. Each latch opening extends through the bottom wall and through a side wall and is configured to allow a latch to eject a mating connector by moving within the opening.

Abstract: An electrical connector includes an insulative connector housing including a longitudinal body portion and first and second pairs of opposing end portions. The body portion has a plurality of contact openings extending therein in an insertion direction for supporting a plurality of electrical contact terminals. The first and second pairs of opposing end portions extend from opposing ends of the body portion in the insertion direction. At least one end portion in each pair of opposing end portions includes a ridge extending in the insertion direction for guiding a cover latch along a side surface of the ridge and guiding a strain relief latch along an opposing side surface of the ridge. The ridge has an inclined top surface for resiliently deflecting a cover latch and an inclined side surface for resiliently deflecting a strain relief latch. The ridge has an end portion for latching onto a cover latch and a strain relief latch.

Abstract: Plug connector (10) with at least one spring or blade contact element (410) arranged in a housing, the spring or blade contact element being connected in an electrically conductive manner to at least one displacement insulation contact (430), which contacts and fixes at least one single-core, insulated cable (301, 302, 303, 304), characterized in that the at least one displacement insulation contact (430) is arranged offset by 90° in the plug direction (R) of the spring or blade contact element (410) relative to the spring or blade contact element (410) such that the at least one single-core, insulated cable is contacted and fixed in the plug direction passing through a displacement insulation contact.

Abstract: An electrical connector includes an insulative connector housing including a longitudinal body portion and first and second pairs of opposing end portions. The body portion has a plurality of contact openings extending therein in an insertion direction for supporting a plurality of electrical contact terminals. The first and second pairs of opposing end portions extend from opposing ends of the body portion in the insertion direction. At least one end portion in each pair of opposing end portions includes a ridge extending in the insertion direction for guiding a cover latch along a side surface of the ridge and guiding a strain relief latch along an opposing side surface of the ridge. The ridge has an inclined top surface for resiliently deflecting a cover latch and an inclined side surface for resiliently deflecting a strain relief latch. The ridge has an end portion for latching onto a cover latch and a strain relief latch.

Abstract: Embodiments of the invention relate to connectors for connecting strips of light-emitting diodes (LEDs) end-to-end and for connecting a single strip of LEDs to a power source. The connectors define a compartment to receive a strip of LEDs. Tabs extending inwardly from the sides of the connector retain the strip. Electrical contact with the strip is made by a pair of spring clip contacts that bear against electrical terminals on the strip. A hinged lid has an opening positioned so as not to obstruct the last LED on the strip, and carries a downwardly-facing block that bears against the spring clip ends to keep them in contact with the terminals of the strip. In a strip-to-power connector, the connector defines one compartment for each conductor, and each conductor carries connecting structure. Ends of the spring clip connectors carry complementary connecting structure.

Abstract: A receptacle connector is provided for a wearable article. The receptacle connector includes a housing having a receptacle configured to receive a complementary plug connector therein. The housing is configured to be mounted to the wearable article. A printed circuit board is held by the housing. The printed circuit board includes mating contacts for mating with the plug connector. The printed circuit board includes mounting contacts that are configured to terminate conductors of a flat cable of the wearable article or an e-textile of the wearable article.

Abstract: An electrical connector (100) includes a shielding plate (1), a base portion (2) insert molded with the shielding plate and defining two rows of passageways (21), two rows of terminals (3) affixed to the base portion, and an insulative housing (4) over molded with the base portion. The two rows of passageways extend through the base portion along a front-to-back direction and exposed completely upwardly and downwardly. Each terminal includes a contacting beam (31) having a contacting portion (311). The shielding plate is located between the two rows of terminals.

Abstract: An electrical connector (100) includes a shielding plate (1), a base portion (2) insert molded with the shielding plate and defining two rows of passageways (21), two rows of terminals (3) affixed to the base portion, and an insulative housing (4) over molded with the base portion. The two rows of passageways extend through the base portion along a front-to-back direction and exposed completely upwardly and downwardly. Each terminal includes a contacting beam (31) having a contacting portion (311). The shielding plate is located between the two rows of terminals.

Abstract: A strain relief for an electrical cable includes a longitudinal base portion including curved side portions extending upwardly from opposing longitudinal sides thereof, and first and second opposing strain relief latches extending from opposing lateral sides of the base portion. Each latch includes a curved connecting portion extending from a lateral side of the base portion first curving upwardly and then curving downwardly and terminating at an arm portion that extends downwardly. The arm portion is configured to resiliently deflect outwardly to accommodate secure attachment of the strain relief to an electrical connector.

Abstract: The expandable power adaptor contains a first casing member, a second casing member, a circuit assembly, and at least a metallic connector. The first casing member has a first coupling element set. The second casing member has a second coupling element set. The first and second casing members are joined to form an enclosed accommodation space. The circuit assembly and the metallic connectors electrically connected to the circuit assembly are configured in the accommodation space. To assembly, the first lower piece and the second lower piece are joined to form a complete lower piece. Then the circuit assembly and the metallic connectors are configured on the complete lower piece, and the first and second upper pieces are vertically joined to the first and second lower pieces. Additional casing members can be integrated between the first and second casing members so as to achieve the desired number of outlets.

Abstract: An electrical contact-making system includes a flat ribbon cable with a sheath which has a planar top sheath face, a core plane containing electrical cores and a bottom sheath face with constricted portions which are parallel to the cores and are each disposed between two of the cores. A tapping collar makes electrical contact with the cores. A peripheral sealing strip encloses a rectangular contact-making region and is disposed on a bottom face of the top part of the tapping collar facing the top sheath face of the flat ribbon cable.

Abstract: An electrical plug-in connector having a first housing part and having a second housing part, blade contact elements being arranged in the first or second housing part and spring contact elements being arranged in the second or first housing part which are adapted to the blade contacts and can be inserted therein, has a locking clip which, when it engages around the first or second housing part in a manner substantially parallel to the plug-in direction when the two housing parts are plugged into each other, can be locked in or on the second or first housing part.

Abstract: A connector device includes an electric wire side connector to which a shielded electric wire is connected, and a board side connector that is connected to a circuit board. The electric wire side connector is engaged with the board side connector. The electric wire side connector includes an electric wire side housing and an electric wire clamping member. The board side connector includes a board side housing and a fixing metal fitting. A bus bar plate electrically contacts the fixing metal fittings when the board side connector is engaged with the electric wire side connector.

Abstract: A connector tongue element for a plug receptacle includes a flexible printed circuit. Connector pins are electrically connected to the flexible printed circuit at an attachment portion. A first body of polymeric material is molded around to mechanically secure at least a part of the attachment portion to form a connector base portion. The connector pins extend from the connector base portion in a withdrawal direction along which an electrical connector plug can be withdrawn from the plug receptacle. The connector pins form a connector tongue portion extending from the connector base portion in the withdrawal direction. The first body allows the connector pins to present connecting surfaces for connecting the plug receptacle to the electrical connector plug. The connector base portion includes electronic circuitry to monitor status of electric connections within the plug receptacle, and the first body is molded around the electronic circuitry.

Abstract: An electrical connector including an insulation pillar (100), multiple terminals (200) and a cable arranging base (300) is provided in the present disclosure. A cable connecting base (110) is arranged at an end of the insulation pillar (100), the terminals (200) are embedded in the insulation pillar (100), a puncturing tool (210) is provided at an end of each terminal (200), the puncturing tool (210) is extended from the cable connecting base (110) along a radial direction thereof, and the insulation pillar (100) is protruded thereby. The cable arranging base (300) clips the cable connecting base (110) and has multiple insertion slots (310) corresponding to the puncturing tools (210), and each insertion slot (310) is perpendicular with the corresponding puncturing tool (210). Thereby, multiple cables (11) are clipped by the cable arranging base (300) and prepared for electrically connecting to corresponding terminals (200).

Abstract: A connector backshell assembly comprises a first cover, a second cover, a first sidewall block between the first cover and the second cover, and a second sidewall block between the first cover and the second cover, with the second sidewall block spaced apart from and facing the first sidewall block. At least one shield termination structure is located between the first and second covers, with the shield termination structure including a plurality of slots that are substantially parallel to each other. The first and second covers, and the first and second sidewall blocks, define a front opening in communication with the slots. Each of the slots are configured to hold a conductor that extends from a rear portion of the backshell assembly into the front opening for termination connection with an electrical connector. The backshell assembly is electrically conductive and provides a shield to prevent electromagnetic interference with each conductor.

Abstract: A contacting device for electrically contacting tensile carriers of a suspension in an elevator system includes a housing having a recess in which an exposed segment of the suspension can be received so that the housing at least partially encloses the exposed segment of the suspension. Raised areas and recesses are alternatingly disposed on an inner side of the housing, wherein a raised area and a recess face each other in a state of use. At least one contact element is disposed in a recess of the housing, wherein the at least one raised area can be pressed against a tensile carrier of the suspension, such that the tensile carrier is brought into electrical contact with the contact element.

Abstract: Particular embodiments described herein provide for an electronic device, such as a notebook computer or laptop, that includes a circuit board coupled to a plurality of electronic components (which includes any type of components, elements, circuitry, etc.). The electronic device may also include a base portion and a lid portion coupled to the base portion at a hinge configured such that the base portion and the lid portion can rotate between an open configuration of the electronic device and a closed configuration of the electronic device. The lid portion can include at least one segment that is to raise at least a portion of the base portion in response to a rotation toward the open configuration (e.g., opening the lid portion to access a touchpad or a keyboard of the electronic device, or to see a display of the electronic device).

Abstract: An insulating body is captively secured on the housing for a plug connection having insulation displacement terminals. The insulating body is held on guide of the housing in a rotatable manner and in an insertable manner into the housing via an opening. The guide can be formed as slits that lie in lateral parts of the housing. The lateral parts project beyond the housing. Electric conductors can be inserted into the insulating body on a rear surface, plugged through said body, and cut on a front surface. The electric conductors are thus brought to the intended length before the insulating body is inserted into the housing.

Abstract: An electrical insulation displacement connector (IDC) assembly includes a body having at least one channel with an open top side for receipt of an insulated conductive core wire. A contact element is fixed in the body with a first insulation displacement end defined by opposed blades oriented across the channel, and a second end extending from a bottom surface of the body for electrical contact with a PCB. The IDC assembly includes a cap having a size and configuration to engage over the body, with the cap including a recess with an open bottom that is aligned with the body channel in a fitted configuration of the cap on the body. The wires may be initially received in the cap recesses wherein upon pressing engagement of the cap onto the body, the insulated conductive core wire is pressed into the body channel between the contact element.

Abstract: A data cable connector module with a fixation element for the positioning and fixation of the cable conductors of a multi core cable, conductor receiving units for bent IDCs, IDC receiving units for fixation of connected IDCs; a centric metallic shield star electrically conductively connected with a fixation element housing; and a contact module with a contact module metal housing, an isolation socket for the reception of bent slide circuit board contacts; at least one circuit board, a front connector face; and a fixation element connector face with at least one end isolator block guided plug-in contacts, the fixation element and the contact module being developed so that they can be brought into contact with the IDCs, causing the cable conductors of the fixation element to be electrically conductively connected with the slide contacts of the contact module; and a process for the assembly of the module to a cable.

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

Abstract: An insulating body (3) is captively secured on the housing (1) for a plug connector (1) comprising insulation displacement terminals (23). The insulating body (3) is held on guiding means of the housing in a rotatable manner and in an insertable manner into the housing via an opening. The guiding means can be formed as slits (22, 22?) that lie in lateral parts (21, 21?) of the housing. The lateral parts project beyond the housing. Electric conductors can be inserted into the insulating body on a rear surface, plugged through said body, and cut on a front surface. The electric conductors are thus brought to the intended length before the insulating body is inserted into the housing.

Abstract: A harness connector having a header assembly that includes a header housing that extends between a plug end and a mounting end. The header housing holds header contacts. Optionally, the header housing may be mounted to a printed circuit board at the mounting end with the header contacts being electrically connected to the printed circuit board. One or more plug assemblies are received in the plug end of the header housing along a plug axis. The plug assembly includes a plug housing holding receptacle terminals. The receptacle terminals extend along terminal axes parallel to the plug axis between mating ends and terminating ends. The mating ends are mated with corresponding header contacts. The terminating ends have insulation displacement contacts configured to receive, and be electrically connected to, corresponding wires. The wires extend from the insulation displacement contacts along wire axes that are generally perpendicular to the terminal axes.

Abstract: A bayonet type electronic connector (1) comprises metal contacts arranged on the upper and lower surfaces of the connector (1). Metal contacts all are U-shaped bayonets (2). The U-shaped bayonet's terminal forms a right angle. The adjacent U-shaped bayonets (2) on each surface are staggered fore and aft in two rows. Enough functional space is arranged between the two rows.

Abstract: The present invention relates to a pull-through modular jack and method of use thereof. The modular jack allows wires to be fed through the housing and pulled tight prior to terminating. This ensures that the wires terminate with the insulation displacement contact very close to the point at which the wires are still twisted. Termination is made by moving a pressing portion to a pressed position, which then pushes the wires into the insulation displacement contacts that displace the wire insulation to make contact.

Abstract: In some PCB connector embodiments the internal pins of the probe or wire terminal end could be set at between about 0.4 mm to about 2.0 mm provided that the contact point between the male probe end and the mating female connector is about 1.0 mm. Such embodiments would adjust for alternate connector configurations for connectors while maintaining the required HDMI specifications for the contact point. In other embodiments intermediate distances could be used of about 0.4 mm to about 0.5 mm; about 0.5 mm to about 0.6 mm; about 0.6 mm to about 0.7 mm; about 0.7 mm to about 0.8 mm; about 0.8 mm to about 0.9 mm; about 0.9 mm to about 1.0 mm; about 1.0 to about 1.1 mm; about 1.1 to about 1.2 mm; about 1.2 mm to about 1.3 mm; about 1.3 mm to about 1.4 mm; about 1.4 mm to about 1.5 mm; about 1.5 mm to 1.6 mm; about 1.6 mm to 1.7 mm; about 1.7 mm to 1.8 mm; about 1.8 mm to 19 mm and about 1.9 mm to 2.0 mm once again provided that the probe pins are finally configured to meet the about 1.

Abstract: The present invention relates to a pull-through modular jack and method of use thereof. The modular jack allows wires to be fed through the housing and pulled tight prior to terminating. This ensures that the wires terminate with the insulation displacement contact very close to the point at which the wires are still twisted. Termination is made by moving a pressing portion to a pressed position, which then pushes the wires into the insulation displacement contacts that displace the wire insulation to make contact.

Abstract: An electrical connector includes an insulation body, a plurality of insulation wires, and a plurality of terminal-connecting elements. The insulation body has a plurality of receiving slots and a plurality of terminal-inserting openings. The terminal-connecting elements are disposed respectively in the receiving slots. Each of the terminal-connecting elements has a first protrusion and a second protrusion respectively fixing one of the insulation wires. An asymmetric single rib of each of the terminal-connecting elements protrudes toward a direction of one of the terminal-inserting openings. The asymmetric single rib has a projecting point electrically contacted with a corresponding terminal.

Abstract: The invention relates to a core connector (1) for splicing at least one twin core (a2, b2), comprising at least one housing (3, 4), in which core connection contacts are arranged, the core connection contacts being in the form of integral twin contacts (K1-K4), a first contact (K11, K21, K31, K41) of the twin contacts (K1-K4) being accessible from the upper side of the housing (3, 4), and a second contact (K12, K22, K32, K42) of the twin contacts (K1-K4) being accessible from the lower side of the housing (3, 4), at least four twin contacts (K1-K4) being provided, which are opposite one another in pairs, as well as to a method for splicing a twin core (a2, b2) into an existing end-subscriber twin core (a, b).

Abstract: A connector arrangement connects the flat conductors that extend upwardly from a horizontal photovoltaic cell panel with the insulated conductors of a cable via the circuits of a printed circuit board, respectively. A flat conductor support member is adhesively secured to the upper surface of the horizontal photovoltaic cell panel and includes upwardly extending bridge portions having flat upper edges about which are reversely bent the upper free ends of the flat conductors. A hollow sectional connector housing includes a lower body section containing a bottom opening that receives the flat conductor support member when the lower body section is seated on the panel upper surface. Bifurcated resilient contacts mounted on the lower section have first portions that engage the bent flat conductor ends, respectively, and second portions that engage the circuits on a replaceable printed circuit board carried by the removable upper cover section of the housing.

Abstract: An in-line splice connector comprises a connector body having a first end and a second end opposite the first end and having a generally elongated cavity region formed between the first and second ends to house at least a first insulation displacement connector (IDC) element. The in-line splice connector also includes a first cap and a second cap, each cap including a wire guide to receive and guide a wire to the IDC element. The first cap is pivotally mounted at the first end of the connector body to receive a first wire and the second cap is pivotally mounted at the second end of the connector body to receive a second wire. A closing of the first and second caps actuates a splice of the first and second wires.

Abstract: An electrical connector assembly includes a cable connector having a cable therein and a jumper device retained on the cable. The jumper device includes an insulative base having a body portion mounted a jumper contact therein and a retaining portion engaging with the cable so as to keep the jumper device retaining on the cable. The jumper device is keeping retaining on the cable no matter whether the jumper device is in a work status, which is benefit for an operator to use.

Abstract: Telecommunications modules (10) having contacts (12) adapted generally to connect wires therewith and arranged in at least one row defining a row direction (R), the contacts (12) comprising a length direction (L) extending substantially perpendicular to the row direction (R), wherein a projected length of at least one contact (12.3, 12.4) is smaller than the projected length of at least one adjacent contact (12.1, 12.2, 12.5) of the same row. Methods of using and making such modules are also provided.

Abstract: An electrical plug comprises first and second housings rotatable between an open position and a closed position. The first and second housings each have contact elements arranged therein. A cable end seating is arranged between the first and second housings. The cable end seating has a first surface facing the first housing and an opposing second surface facing the second housing. The first and second surfaces are each provided with at least one seating for receiving a conductor element of a cable to be connected to the plug. The contact elements electrically contact the conductor elements when the first and second housings are in the closed position.

Abstract: Communications connectors are disclosed that include a housing having an upper end and a lower end, the upper end of the housing including a plurality of slits that define a plurality of pillars. First and second pairs of tip and ring insulation displacement contacts (IDCs) are mounted in the housing. Each of the IDCs has an upper end that has a first slot, a lower end that has a second slot and an intermediate portion between the upper end and the lower end, the lower end being offset from the upper end. The first slot of each IDC is aligned with a respective one of the slits. The housing further includes through slots that are separated by dividers, where each of the through slots is sized to receive the upper end of a respective one of the IDCs, and each slit of the plurality of slits exposes inner edges of the first slot of a respective one of the IDCs.

Abstract: A cross-connect wiring system includes a terminal block, a connecting block and a patch plug. The terminal block has a front side and a rear side. The connecting block is mounted on the front side of the terminal block. At least two pairs of tip and ring insulation displacement contacts (IDCs) are at least partially mounted within the connecting block. Each of these IDCs has a first end that includes a first conductor receiving slot and a second end that includes a second conductor receiving slot. The first and second ends of each IDC are non-collinear. Both the first and second conductor receiving slots of each IDC are on the front side of the terminal block. The patch plug includes a housing and at least two pairs of tip and ring plug contacts. The tip and ring plug contacts of at least one of the two pairs of tip and ring plug contacts cross over each other within the plug housing.

Abstract: A connector includes an insulating body, a plurality of pins, and two covering bodies. The insulating body has a receiving space, and a plurality of pin slots. Each pin has a contacting portion and a piercing portion. Each covering body has a plurality of wire slots and through holes that respectively link to the wire slots. The pins are respectively installed in the pin sots so that the contacting portions respectively extend into the insulating body. The piercing portions are disposed in a staggering method and extend into the receiving space. When the two covering bodies are combined with the insulating body, the piercing portions respectively pass through the through holes and enter into the wire slots to pierce through the covering layer and electrically connect the conducting wires. Therefore, the insulating body, the covering bodies, and the cable can be easily assembled, and the cost is reduced.

Abstract: In a connector for being connected to a plurality of wires, a plurality of contacts are held by a housing and arranged in parallel in a first direction. The contacts have connecting portions to be connected to the wires. The connector includes an aligning member for aligning and holding the wires. The aligning member defines a plurality of through holes arranged in parallel in the first direction and extending in a second direction perpendicular to the first direction. The through holes allow the connecting portions to be inserted therethrough. The aligning member includes a comb-like portion formed at one end in a third direction perpendicular to the first and the second directions and adapted to hold the wires, and a plurality of positioning portions formed at the other end in the third direction and arranged in parallel in the first direction. The positioning portions are for positioning the wires.