Abstract: An electrical connector includes wafer assemblies coupled to a housing. Each wafer assembly includes a leadframe, a wafer body holding the leadframe, and a ground frame coupled to the wafer body to provide electrical shielding for the leadframe. Each leadframe has signal contacts with mating ends extending from the wafer body for mating with mating signal contacts of a mating electrical connector. The mating ends are twisted 45° to define twisted mating interfaces. Each ground frame has ground shields extending from a ground plate along the mating ends of the signal contacts. The ground shields are twisted 45° relative to the ground plate to define twisted shield zones along the mating ends of the signal contacts.

Abstract: A conductive terminal assembly and a conductive terminal are provided. The conductive terminal assembly includes a first conductive terminal and a second conductive terminal that are not in contact with each other. The first conductive terminal includes a first A contact portion, a first B contact portion, a first extension portion, and a first pin portion. The first A contact portion includes at least one first A contact arm. The second conductive terminal includes a second A contact portion, a second B contact portion, a second extension portion, and a second pin portion. The second A contact portion includes at least one second A contact arm. The first A contact portion and the second A contact portion are arranged side by side and form a first port. The first B contact portion and the second B contact portion are arranged side by side and form a second port.

Abstract: Provided herein are semiconductor packages with improved electrical contacts (e.g. pins). In some embodiments, an assembly may include a substrate and an electrical contact coupled to the substrate, the electrical contact consisting of a first component defined by a complex 3D designed receiving pin. The electrical contact may further include a second component defined by another complex 3D designed penetrating pin, wherein the first component engages the second component to deform mechanically and to weld when the first component and the second component are coupled together.

Abstract: A connector part includes: a plurality of hermaphroditic contact elements for contacting associated hermaphroditic contact elements of a mating connector part, each of the plurality of hermaphroditic contact elements having a body, a first contact lug extending from the body along a first direction, and a second contact lug extending from the body along the first direction. The first contact lug and the second contact lug are offset from each other along a second direction that extends transversely to the first direction, and along a third direction that extends transversely to the first direction and transversely to the second direction. The connector part has, for each hermaphroditic contact element, a hermaphroditic contact element mirror-inverted to a first mirror plane spanned by the first direction and the third direction and a hermaphroditic contact element mirror-inverted to a second mirror plane spanned by the first direction and the second direction.

Abstract: An electrical terminal includes a base portion having a base portion outer surface, a base portion inner surface, and two securing tabs extending from an edge of the base portion. The electrical terminal also an attachment portion having an attachment portion outer surface an attachment portion inner surface. The base portion inner surface is proximate the attachment portion inner surface and wherein the two securing tabs overlay the attachment portion outer surface. The electrical terminal may be especially well suited for making an electrical connection to components disposed on a glass surface. A method for forming such a terminal is also presented.

Abstract: The invention relates to a high-current plug connector (1) for an electrical connection between a first line (11) and a second line (12), comprising: a plug pin (2) that can be connected to the first line (11), a plug socket (3) that can be connected to the second line (12), a contact cage (4), which is arranged between the plug pin (2) and the plug socket (3) and is designed to establish electrical contact between the plug pin (2) and the plug socket, a spring element (5), which exerts a preload (F) in the axial direction (X-X) of the high-current plug connector, and a flexible connection element (6), by means of which the plug pin (2) can be connected to the first line (11) and/or by means of which the plug socket (3) can be connected to the second line (12).

Abstract: A shield terminal (30) includes inner conductors (32), a dielectric (37) configured to accommodate the inner conductors (32) and an outer conductor (40) surrounding the dielectric (37), and is selectively mountable into a first housing (10) and a second housing (20). A first locking portion (49) and a second locking portion (55) are formed on an outer surface of the outer conductor (40). The shield terminal (30) inserted into a first accommodation chamber (13) is retained by a front retainer (17) restricting the resilient deflection of a first locking lance (14) and the first locking portion (49) being locked to the first locking lance (14). The shield terminal (30) inserted into a second accommodation chamber (21) is retained by the locking of the first locking portion (49) and a second locking lance (22) and the locking of the second locking portion (55) and a side retainer (25).

Abstract: A double-pole butting connector has a male connector and a female connector. The male connector has at least one first pole with a first front side and a first back side. The female connector having at least one second pole with a second front side and a second back side. The first pole and the second pole have an identical thickness. The second pole is placed in an insertion groove, and the insertion groove has a positioning strip facing the second back side of the second pole, and the positioning strip makes contact with the second back side with an allowable deformation angle between the positioning strip and the second back side.

Abstract: A connection terminal includes: a tubular electric wire connection portion configured to be tightened and crimped to an end portion of an electric wire; a tubular intermediate portion which includes one end continuously formed at one open end of the electric wire connection portion and which has a cross-sectional shape larger than a cross-sectional shape of the electric wire connection portion; and a tubular terminal connection portion which is continuously formed at another end of the intermediate portion and which has a cross-sectional shape larger than the cross-sectional shape of the intermediate portion. The connection terminal further includes a terminal contact portion which protrudes inwardly from the terminal connection portion. A pair of terminals each formed in this manner and having basically the same shape may be joined to a pair of wires and connected to each other.

Abstract: Technologies are described for devices and methods to prevent crosstalk. The devices may comprise a first and a second electromagnetic interference shield, each effective to prevent crosstalk between inner contacts and each may include a first flat plate and a second flat plate connected at a bend. The device may comprise an inner insulator. The inner insulator may include walls defining slots configured to receive the first and second electromagnetic interference shields and walls defining cavities configured to secure inner contacts to the inner insulator. The device may comprise the inner contacts and an outer insulator. The outer insulator may be configured to slide over and attach to the inner insulator. The device may comprise a ferrule and an outer body. The outer body may be configured to enclose the outer insulator, the inner insulator, the inner contacts, the electromagnetic interference shields, and at least part of the ferrule.

Abstract: Embodiments discussed herein refer to connectors that enable two structures or devices to be coupled together in a manner that enables consistent and reliable operation of contactless communications and power transfer. The connector integrates power and alignment such that when two connectors are coupled together the power connections are also responsible for connector alignment. The connector alignment ensures that contactless communication channels, spanning between the connectors, are aligned to enable consistent and reliable operation of contactless communications.

Abstract: High-speed connectors are identically configured each comprising a housing with a first interconnection feature at one location of the housing and a second interconnection feature at another location of the housing with a channel interposed between the first and second interconnection features. The first interconnection feature of the connector is configured to attach with the second interconnection feature of an identical connector and vise versa. The housing channel includes opposed wall sections with shields attached thereto that connect with one another when the connectors are combined. A plurality of electrical terminals is disposed within each housing channel and extend a length from a channel floor to a channel opening. The electrical terminals form an electrical/mechanical contact between interconnecting electrical terminal pairs when the connectors are joined together. In an example, two or more points of electrical/mechanical contact are formed between interconnecting electrical terminal pairs.

Abstract: A multifunctional socket comprises a main socket module (5) and at least two functional device modules. The functional device modules and the main socket module (5) can be assembled in any manner. At least one of the functional device modules is detachably connected to the main socket module (5). Adjacent functional device modules are detachably connected. At least one of the functional device modules and the main socket module (5) are electrically connected. The adjacent functional device modules are electrically connected. The multifunctional socket enables at least two functional device modules to be integrated into a single device, such that a user can use the components separately or combine the same in any fashion, thereby meeting the needs of the user.

Abstract: A contact for an electrical connector comprises a body extending in a longitudinal direction. The body has a front surface. The front surface includes a first front section and a second front section. The second front section is offset with respect to the first front section in the longitudinal direction.

Abstract: A molded grid pair is revealed that will protect vulnerable contact arrays from unwanted distortion while in manufacture or in service. These grids are specifically designed to accompany contact arrays, such as arrays of hermaphroditic contacts. The grid may cover the faces of the contacts that are opposite the faces that engage mating contacts, and may cover tips at the free ends of the contacts. The grid may be molded out of plastic, and may be mechanically coupled to a header body that secures and maintains spacing of the linear contacts, for example with the grid snapping onto a body.

Abstract: Provided is a crimp terminal including an electric wire connector connectable to an electric wire. The electric wire connector includes a body, a plurality of first crimping pieces extending from a first end of the body, and at least one second crimping piece extending from a second end thereof. The first and second crimping pieces are alternately arranged while being displaced from each other. When the crimping pieces are crimped to connect a core wire of the electric wire, a clearance between one first crimping piece and the second crimping piece formed at a position closest to an insulating member of the electric wire is larger than a clearance between a remaining first crimping piece and the second crimping piece formed at another position. Also provided are an electric wire with the crimp terminal, and a medical device sensor including the electric wire with the crimp terminal.

Abstract: Method and apparatus are disclosed for genderless electric terminals of vehicles. An example genderless electric terminal includes a first arm, a second arm opposite the first arm, and a wall integrally connecting the first arm and the second arm to define a slot. The example genderless electric terminal also includes a first flexible contact extending from an end of the first arm and protruding into the slot to engage a first arm of a different genderless electric terminal that is inserted into the slot.

Abstract: The electrical connector terminals are made of sheet metal and have two arm portions that have their major surfaces opposed to each other and separated from each other in a terminal array direction and extend in a direction of connection to counterpart connector bodies; the two arm portions are coupled to each other at their base portions and can come into contact with the counterpart connector bodies by independently undergoing resilient displacement; the contact portions of the two arm portions contacting the corresponding contact portions of the counterpart connector bodies are respectively formed at the distal end sides, i.e. at the sides opposite the base portions, in the direction of connection; and the contact portions of the two arm portions, along with being located in different positions in the direction of connection, are located in overlapping positions in the terminal array direction when connected to the counterpart connector bodies.

Abstract: A device has a base with a mounting surface with a length and a stack, the stack having a diameter smaller than the length and fastened to the mounting surface. The stack may have a plurality of stack conductive layers in addition to a plurality of insulating layers that separate each of the plurality of stack conductive layers. The stack conductive layers may be separated in a manner that aligns them with corresponding printed circuit board conductive layers when the stack portion of the device is inserted into an aperture in a printed circuit board.

Abstract: A testing device for wafer level testing of IC circuits is disclosed. An upper and lower pin (22, 62) are configured to slide relatively to each other and are held in electrically biased contact by an elastomer (80). The elastomer is precompressed from its natural rest state between a top (22) plate and a bottom (70). Pre compression improves the resilient response of the pins. The pin crowns (40) are maintained relatively coplanar by the engagement of at least one flange (44a-b) against an up-stop surface 90 of plate 20, thereby insuring coplanarity of the crowns. The pin guide (12) is maintained in alignment with the retainer 14 by establishing a registration corner (506) and driving the guide into the corner by elastomers in at least one diagonally opposite corner.

Abstract: An insulating body, which can be inserted into a chamber of a plug-in connector housing intended for this purpose, has at least one recess for at least one contact element for connecting to a conductor of a cable or a conducting path of a printed circuit board, and a shielding element for electromagnetically shielding the contact element, wherein the insulating body is formed from at least a first component and a second component, wherein the insulating body contains a cavity having a surface formed from the first component, and wherein the first component contains a dopant through which the surface is provided with a conductive coating forming the shielding element.

Abstract: An electrical connector assembly is disclosed having a first connector and a second connector. The first connector has a first engagement portion on a first mating end, and at least one first ridge positioned on and protruding outward from an outer surface of the first engagement portion. The second connector has a second engagement portion on a second mating end. The second engagement portion has a first connector receiving chamber having an inner surface, and at least one second ridge positioned on and protruding inward from the inner surface. The at least one second ridge is positioned on, and protrudes inward from, the inner surface, being in electrical contact with the first ridge when the first engagement portion is positioned in the first connector receiving chamber.

Abstract: An electrical interconnect system employs electrical connectors in which the contacts are identical for both the male and the female side of the connection. Contacts are arranged in a linear header and multiple header pairs are arranged in a dielectric matrix or grid. The grid is an external dielectric frame capable of providing load bearing and geometry requirements. This arrangement results in a cost-effective construction that features very high electrical bandwidth capabilities and an extremely rugged product.

Abstract: A plug connector, a receptacle connector and an electrical connector assembly are disclosed. When the plug connector is engaged with the receptacle connector, the power mating bodies and the signal mating body of the receptacle connector respectively enter into the corresponding plug power ports and the plug signal port of the plug connector, and the plug power contacts and the plug signal contacts respectively enter into the receptacle power ports and the receptacle signal ports. The vertical blade-shaped mating end of the plug power contact is inserted between the elastic pieces of the corresponding two receptacle power contacts, and the head of the plug signal contact is inserted into the forked head of the corresponding receptacle signal contact.

Abstract: The present invention is to provide a shield cover and a shield structure which can be improved according to an electromagnetic shielding means. The shield cover by processing a conductive plate slidably includes a front shield portion, a back shield portion, a side shield portion, connections, an entry and a receiving space, and covers a wiring harness 11 as a shield object. The shield cover is formed into a U-shape in a cross-section. The shield structure includes the shield cover and a wall-shaped shield cover engaged with the shield cover.

Abstract: A semiconductor device is disclosed. The device includes a substrate, a first dielectric layer disposed over the substrate and a metal structure disposed in the first dielectric layer and below a surface of the first dielectric layer. The metal structure has a such shape that having an upper portion with a first width and a lower portion with a second width. The second width is substantially larger than the first width. The semiconductor device also includes a sub-structure of a second dielectric positioned between the upper portion of the metal structure and the first dielectric layer.

Abstract: A wire line connector includes a main contact body is provided with an electrical connection trench into which an insulated wire is compressed at the rear end, a protrusion that engages with a housing and prevents disconnection in the middle portion, and a contact portion at the front end. The portion of the contact portion on the rear end side forms parallel walls and the portion on the front end side forms protruding parallel walls in such a manner that the outer surfaces of the protruding walls and the inner surfaces of the parallel walls make contact with each other when the two connector portions are connected. The housing is provided with a step to be engaged with the protrusion for preventing disconnection of the main contact body, and an engaging hole and an engaging protrusion which prevent disconnection when the housing is connected with another housing.

Abstract: A connector for introducing fluid to an electrical cable affixed in a chamber internal to the connector, the connector comprising an injection port exposed to at least one exterior surface of the cable connector, wherein the injection port is in fluidic communication with the chamber, and a reticulated plug is positioned within an insulated segment of the injection port and sized to fill at least a portion thereof. The reticulated plug may be used in combination with various types of conventional injection connectors to allow swapping of an insulative permanent plug for an injection plug after a dielectric enhancement fluid has been introduced into the interior of a cable using the reticulated plug, wherein the cable is energized during the swapping operation.

Abstract: A minute connector with a first connecting member and a second connecting member. The first connecting member has a first conductive portion disposed at each of the bottom surface of a plurality of recessing portions set at an insulative first substrate connected to first ends, and first contacts made of first carbon nanotube bundles protruding from the surface of a first substrate at second ends. The second connecting member has second contacts made of second carbon nanotube bundles connected to second conductive portions disposed at each of the bottom surface of recessing portions set at an insulative second substrate corresponding to each of the first contacts at first ends. Each of the first carbon nanotubes contacts between the second carbon nanotubes with each other in an overlapping manner at the state that the first contacts are contacted with each of the corresponding second contacts.

Abstract: An electrical contact having a conductor connecting portion and a contact portion at each end, respectively, includes contact leaves arranged side by side and connected together at common edges thereof via a resilient connecting portion; engaging grooves formed on the contact leaves, respectively, and extending toward the conductor connecting portion from a front end thereof; and a pair of beveled contact surfaces respectively formed on side edges of a pair of opposed inner surfaces of each engaging groove. The pair of beveled contact surfaces come into surface contact with a corresponding pair of beveled contact surfaces of the mating electrical contact when the engaging grooves of the electrical contact are engaged with corresponding engaging grooves of the mating electrical contact upon the electrical contact being connected to the mating electrical contact.

Abstract: Electrical connectors and contacts for transmitting power are provided. One power contact embodiment includes a first plate that defines a first non-deflecting beam and a first deflectable beam, and a second plate that defines a second non-deflecting beam and a second deflectable beam. The first and second plates are positioned beside one another to form the power contact.

Abstract: An electrical terminal including a first connection section adapted to connect to a first electrical conductor; and a second connection section connected to the first connection section. The second connection section is adapted to removably connect to a mating electrical terminal. The second connection section includes a first lateral side with a first bent section forming an inward facing slot. The second connection section includes an opposite second lateral side with a second bent section which is bent in a direction generally opposite a bend of the first bent section. An angle of the bend of the first bent section is greater than an angle of a bend of the second bent section.

Abstract: Electrical connectors and contacts for transmitting power are provided. One power contact embodiment includes a first plate that defines a first non-deflecting beam and a first deflectable beam, and a second plate that defines a second non-deflecting beam and a second deflectable beam. The first and second plates are positioned beside one another to form the power contact.

Abstract: An electrical connector assembly includes a first connector and a second connector. The first connector has a first mating face and a number of first contacts retained therein. Each first contact comprises a first mating board and a second mating board vertically protruding from the first mating face. The second connector is mated with the first connector and comprises a second housing with a second mating face confronting with the first mating face and second contacts. The second housing defines corresponding mating slots to receive the first contacts. Each of the second contacts comprises two pairs of holding arms which are arranged non-parallel to each other and each pair of the holding arm elastically perpendicularly projects in the mating slot thereby clipping one of the first mating board and the second mating board of the first contacts.

Abstract: For the transmission of high-frequency signals >2.5 GHz or 5 Gbps by means of a separable plug connection, the invention proposes a symmetrically shaped electric contact (1, 1?) that features a contact body (4) with the contact side (3) with U-shaped spring legs (13), as well as a connection end (5). Contact domes (15) that are directed toward one another and feature contact zones (16) that are narrower than the material thickness of the spring legs (13) are integrally formed onto both spring legs (13). When joining the two electric contacts (1, 1?) that are mated while they are turned relative to one another by 90 degrees in the mating direction, the contact domes (15) or their contact zones (16) of one electric contact (1, 1?) engage into the contact body (4) of the other electric contact (1, 1?) in a paired fashion such that electric signals travel distances with identical transit times on one leg and on the other leg and so-called stub effects, i.e.

Abstract: An electrical connector comprises an insertion side and a shielding shell. The shielding shell comprises a frame, and further comprises a first mounting portion and a second mounting portion which may be respectively located on two opposing sides of the frame. Each of the first mounting portion and the second mounting portion has a fixing hole, and each has a front surface and a rear surface opposite the front surface. The rear surface of the second mounting portion and the front surface of the first mounting portion are substantially on the same plane.

Abstract: A multi-function bundle having all of the basic support functions integrated therein can be used as a basic building block component, for example, in a fuel cell engine. The multi-function bundle is modular, easy to assemble, and able to withstand the physical and thermal shocks encountered in mobile applications. The multi-function bundle utilizes fully distributed fuel and oxidant supply systems which help to reduce temperature gradients throughout the array of fuel cells. The multi-function bundle may be comprised of a plurality of fuel cells, an oxidant supply system, a fuel supply system and a support structure which integrates the fuel cells, oxidant supply system, and fuel supply system into a single unit. The oxidant and fuel supply systems may be fully distributed. The fuel supply system may include one or more fuel feed tube assemblies which allow distributed internal fuel reformation and reduce temperature gradients throughout the array of fuel cells.

Abstract: Electrical connectors and contacts for transmitting power are provided. One power contact embodiment includes a first plate that defines a first non-deflecting beam and a first deflectable beam, and a second plate that defines a second non-deflecting beam and a second deflectable beam. The first and second plates are positioned beside one another to form the power contact.

Abstract: Electrical contact having a longitudinal axis along which a first central body and at least one first blade are produced, characterized in that this electrical contact is intended to be mated with a complementary electrical contact which itself has a second central body and at least one second blade, extending generally in the longitudinal direction of the second contact, so that when the contact and the complementary contact are mated the first blade is in electrical contact with the second central body and the second blade is in electrical contact with the first central body.

Abstract: Preferred embodiments of power contacts have alignment features that can maintain conductors of the power contacts in a state of alignment during and after insertion of the power contacts into a housing.

Abstract: An electronic component includes a substrate, an interconnection element, and a connector. The interconnection element has conductivity. The interconnection element is present over the substrate. The connector is present on the interconnection element. The connector may further include, but is not limited to, a base, at least one stopper, and at least one sloped guiding surface. The base projects from the interconnection element in a first direction that is vertical to the surface of the substrate. At least one stopper projects from the base in a second direction that is parallel to the surface of the substrate. The one stopper has a stopper surface.

Abstract: A backlight assembly and a display device having the backlight assembly are provided where the backlight assembly includes a plurality of light sources for emitting light and a plurality of metal core printed circuit boards on which the light sources are mounted. The metal core printed circuit boards are directly connected to each other in predetermined regions to emit light in a surface direction. A method of assembling the backlight assembly is further provided.

Abstract: Electrical connectors and contacts for transmitting power are provided. One power contact embodiment includes a first plate that defines a first non-deflecting beam and a first deflectable beam, and a second plate that defines a second non-deflecting beam and a second deflectable beam. The first and second plates are positioned beside one another to form the power contact.

Abstract: Connector assemblies are disclosed. The connector assembly (1) comprises a base body (2) having a surface (2a, 2b) and a front face (6) located in the direction of insertion, the base body having at least one contact tongue, each contact tongue having a connecting contact face (5) to form an electrical contact with a corresponding connector assembly. The connector assembly (1) further having at least one contact pocket (3) with a contact bottom (4), wherein the contact bottom (4) rises with respect to the surface (2a, 2b) of the base body (2), the contact pocket (3) having at least one opening (10).

Abstract: A low profile, high power electrical connector assembly is disclosed. The connector assembly includes a plug and a receptacle connector designed to be mounted on separate printed circuit boards. The plug and receptacle connectors are designed to be mated and thus allow the separate circuit boards to be electrically connected in tandem in either the same plane or perpendicular to one another. The connector assembly includes a plug contact and a receptacle contact provided with cooling slots and an at least partially open rear face configured to permit the dissipation of heat.

Abstract: Embodiments of electrical connectors include substantially identical first and second halves. The first and second halves each include insert molded leadframe assemblies that comprise electrical conductors. Each electrical conductor of the first half engages a substantially identical electrical conductor of the second half when the first and second halves are mated.

Abstract: Electrical connectors and contacts for transmitting power are provided. One power contact embodiment includes a first plate that defines a first non-deflecting beam and a first deflectable beam, and a second plate that defines a second non-deflecting beam and a second deflectable beam. The first and second plates are positioned beside one another to form the power contact.

Abstract: A multi-function bundle having all of the basic support functions integrated therein can be used as a basic building block component, for example, in a fuel cell engine. The multi-function bundle is modular, easy to assemble, and able to withstand the physical and thermal shocks encountered in mobile applications. The multi-function bundle utilizes fully distributed fuel and oxidant supply systems which help to reduce temperature gradients throughout the array of fuel cells. The multi-function bundle may be comprised of a plurality of fuel cells, an oxidant supply system, a fuel supply system and a support structure which integrates the fuel cells, oxidant supply system, and fuel supply system into a single unit. The oxidant and fuel supply systems may be fully distributed. The fuel supply system may include one or more fuel feed tube assemblies which allow distributed internal fuel reformation and reduce temperature gradients throughout the array of fuel cells.

Abstract: A connector system includes a first connector, and a second connector that mates with the first connector. The same type of power contact is used in the first and second connectors.

Abstract: A connector includes a housing having a mating end, a wire receiving end and a longitudinal axis therethrough. The housing holds a plurality of contacts grouped in pairs and arranged about the axis. At least one shielding member is located within the housing. The at least one shielding member isolates each contact pair from an adjacent contact pair. An organizer is configured for attachment to the wire receiving end of the housing. The organizer defines a central opening that receives a plurality of signal wires. The organizer includes a plurality of wire guides arranged about the central opening. Each wire guide receives one of the signal wires.