Abstract: A computing card for an information handling system, the computing card system including a computing card, including: a first side including: a first body surface, the first body surface including a first plurality of conductive pads configured to connect respectively with a first set of pins of a computing card receptacle; a first indented surface configured to connect with a second set of pins of the computing card receptacle; a first connecting surface defined between the first body surface and the first indented surface; a bottom surface; and a plurality of internal layers, wherein one or more of the internal layers are exposed at the first indented surface, and are connected to the bottom surface.

Abstract: A separable and reconnectable connector for semiconductor devices is provided that is scalable for devices having very small contact pitch. Connectors of the present disclosure include signal pins shielded by pins electrically-coupled to ground. Embodiments provide one or more signal pins in a contact array electrically-shielded by at least one ground pin coupled to a ground plane. Embodiments thereby provide signal pins, either single-ended or a differential pair, usable to transmit signals with reduced noise or cross-talk and thus improved signal integrity. Embodiments further provide inner ground planes coupled to connector ground pins to shield pairs of differential signal pins without increasing the size of the connector. Inner grounding layers can be formed within isolation substrates incorporated into connector embodiments between adjacent pairs of signal pins.

Abstract: An electrical connector is provided. The electrical connector capable of electromagnetic interference (EMI) shielding may include a female connector including a female portion in which a plurality of terminals are disposed; a male connector including a male portion including a plurality of pins electrically connected with the terminals; and a shielding member disposed between the female connector and the male connector, wherein the male portion includes an inner surface forming a space in which the pins are positioned and an end surface connected to the inner surface, the shielding member is formed of a conductive elastic body, a portion of the shielding member is disposed between the inner surface of the male portion and an outer surface of the female portion so as to be in contact with the inner surface of the male portion and the outer surface of the female portion.

Abstract: A connector comprises a housing, a holder, a contact, an electrical wire and a sleeve member. The contact is accommodated in a contact accommodation portion of the housing at least in part. The holder is attached to the housing and defines a rear end of the contact accommodation portion. An electrical wire is connected to the contact and extends outside thorough a through hole of the holder. The sleeve member has a main portion and three or more front protrusions. The main portion extends in a front-rear direction and has a C-shape section in a plane perpendicular to the front-rear direction. Each of the front protrusions protrudes forward from a front end of the main portion. The sleeve member is attached to the contact to accommodate a part of the contact and a part of the electrical wire in the main portion and located between an abutment portion and the holder. At least three of the front protrusions are brought into abutment with the abutment portion of the contact.

Abstract: A test probe for use with a testing apparatus. The test probe includes a first portion, a second portion, and a third portion, with hinges between the first and second portions and the second and third portions. The first portion folded at the first hinge over the second portion, the third portion folded at the second hinge over the second portion, where the second portion is stacked between the first portion and the third portion. The test probe is compressible from a first uncompressed state to a second compressed state.

Abstract: An electrical terminal assembly includes a mounting block and one or more electrical terminals. The electrical terminal includes a terminal body and a first exposed section. The terminal body is embedded in the mounting block. The first exposed section is extended from the terminal body and protruding from the mounting block. The first exposed section further includes an interference part protruding from one side edge of the first exposed section. A protruding direction of the interference part is substantially perpendicular to an extension direction of the first exposed section. An electrical connector includes the electrical terminal assembly and a base accommodating the electrical terminal assembly.

Abstract: An interposer and method of providing spatial and arrangement transformation are described. An electronic system has an electronic package, a motherboard and an interposer between the package and the motherboard. The interposer has signal and ground contacts on opposing surfaces that are respectively connected. The contacts opposing the package has a higher signal to ground contact ratio than the contacts opposing the motherboard, as well as different arrangements. Ground shielding vias in the interposer, which are connected to a ground plane, electrically isolate the signals through the interposer. The package may be mounted on a shielded socket such that signal and ground pins are mounted respectively in signal and ground socket mountings, ground shielding vias are between the signal socket mountings, and the ground socket mountings contain plated socket housings.

Abstract: An illustrative example embodiment of a network connector module for a network connector is adapted for network communication with data rates of at least up to 1 Gbit/s. The network connector module comprises a module housing of electrically insulating material wherein the module housing comprises at least two terminal receptacles that are arranged directly adjacent to each other, each of the terminal receptacles receives an electrical contact terminal. The network connector module comprises further an electrical shielding member made of cut and bent sheet metal, wherein the electrical shielding member at least partially surrounds the module housing. The electrical shielding member includes at least two contact elements for electrically contacting ground contacts of a corresponding counter connector. The contact elements are arranged lateral of the module housing, so as to be in a row with the electrical contact terminals. Further, the contact elements sandwich the electrical contact terminals.

Abstract: The present invention discloses a lamp connector for connecting several lamps each provided with a power cable, a control cable, and female connector terminals, including a connector body, a power cable, a control cable, and male connector terminals, where the male connector terminals match the female connector terminals; receptacles for accommodating the male connector terminals are disposed in the connector body, and one male connector terminal is disposed on both sides of the connector body to connect the connector body to two lamps simultaneously; each of the male connector terminals includes a power cable terminal and a control cable terminal, two ends of the power cable are respectively connected to the two power cable terminals, and two ends of the control cable are respectively connected to the two control cable terminals; and both the power cable and the control cable are disposed in the connector body.

Abstract: Provided is a connector converter, comprising a shell, a circuit board assembly and a connecting wire, wherein the circuit board assembly comprises a digital signal board integrated with a digital circuit, the digital signal board being provided in the shell, and the digital signal board being provided with a plurality of output interfaces; the shell is provided with outer pockets positioned corresponding to the output interfaces; and an inner end of the connecting wire is provided with a metal plate, the metal plate being embedded in the digital signal board and electrically connected to the digital signal board via a connecting terminal, and an outer end of the connecting wire extends out to the outside of the shell and is provided with an input interface. The metal plate is in embedded connection with the digital signal board.

Abstract: The present disclosure provides a connector assembly. The connector assembly includes a wire-end connector. The wire-end connector includes a wire-end connector, a shield plate and a twin-ax cable. The wafer includes a frame and a terminal group. The terminal group is configured to be supported in the frame. The terminal group includes a signal terminal pair and a ground plate. The ground plate is configured to provide a ground terminal on each of both sides of the signal terminal pair. The shield plate is configured to be connected to the ground plate. The shield plate includes an opening penetrating the shield plate. The twin-ax cable includes a pair of conductors and a ground portion. The pair of conductors extend through the opening of the shield plate and connect the signal terminal pair. The ground portion electrically connects at least one of the shield plate and the ground plate.

Abstract: A portable power distribution unit for safely distributing high wattage power supplied from mobile generators to lower power test adapter units and systems. Embodiments disclosed include a structurally rigid housing shaped to facilitate secure holding by an operator's foot, a 400 Hz power connector adapted for connection to a mobile power generator, a circuit breaker matched to the rating of the system to be powered and connections for conversion of the six-pin output from the mobile generator to a three or four-pin input for the system to be powered.

Abstract: Embodiments described herein generally relate to a connector interface assembly. The connector interface assembly includes a housing and a printed circuit board. The housing includes a first side part and a second side part. The printed circuit board includes a first end having a connector, an opposite second end having a first receiving port, and an upper surface having a second receiving port and a pair of coaxial ports extending therefrom. The second receiving port and the pair of coaxial ports of the upper surface extend in a direction perpendicular to the connector and the first receiving port. The connector is different from the first receiving port. The printed circuit board is positioned between the first side part and the second side part such that the housing at least partially surrounds the printed circuit board in a between the first and second side parts.

Abstract: A main board and a computer apparatus having the main board are provided. The main board includes a printed circuit board (PCB), a first connector, and a second connector. The PCB is configured for being electrically connected to a processor. The first connector is electrically connected to the PCB in a dual in-line package (DIP) manner, and is configured for a memory to be mounted to the first connector. The second connector is electrically connected to the PCB in a surface mount technology (SMT) manner, and is configured for the memory to be mounted to the second connector. Accordingly, transmission performance of memory signals may be improved.

Abstract: This inspection jig is provided with: a plurality of probes (Pr) for bringing leading end portions (Pra) thereof into contact with a plurality of inspection points on a substrate (100); a support member (300) that supports the probes (Pr) in a state wherein the leading end portions (Pra) are disposed to be in contact with the inspection points on the substrate (100) respectively; device-side connecting terminals (36) electrically connected to an inspection device main body (2); a plurality of standard disposition electrodes (332), which are conducted to the device-side connecting terminals (36), and are disposed in previously set standard disposition; and a conversion block (31), which has a first surface (311) and a second surface (312) on sides opposite to each other, and in which first electrodes (E1) are formed on the first surface (311), and in which second electrodes (E2) are formed on the second surface (312).

Abstract: Plug side connectors are prevented from moving relative to each other in the connecting/disconnecting direction, and one of the plug side connectors can be individually disconnected from the device side connector. The connector structure includes a longitudinal movement restricting protrusion on one of laterally facing side surfaces of the moveable member, which is resiliently deformably provided on the plug side housing, and a pair of stopper portions provided on another of the laterally facing side surfaces of the piece (48), and configured to restrict a movement of the longitudinal movement restricting protrusion of the laterally adjoining second housing (32) in the longitudinal direction by aligning with the longitudinal movement restricting protrusion (54) with respect to the longitudinal direction.

Abstract: An interposer and method of providing spatial and arrangement transformation are described. An electronic system has an electronic package, a motherboard and an interposer between the package and the motherboard. The interposer has signal and ground contacts on opposing surfaces that are respectively connected. The contacts opposing the package has a higher signal to ground contact ratio than the contacts opposing the motherboard, as well as different arrangements. Ground shielding vias in the interposer, which are connected to a ground plane, electrically isolate the signals through the interposer. The package may be mounted on a shielded socket such that signal and ground pins are mounted respectively in signal and ground socket mountings, ground shielding vias are between the signal socket mountings, and the ground socket mountings contain plated socket housings.

Abstract: A cable connector includes a twin-axial cable having a first conductor and a second conductor within a core of the cable. The cable connector includes first and second signal contacts including cable terminals terminated to the conductors and substrate terminals generally perpendicular to the cable terminals and terminated to a substrate. The cable connector includes a contact holder having a body encasing portions of the first and second signal contacts. The contact holder has a front and a rear, and a top and a bottom. The cable terminals are arranged proximate to the rear for termination to the cable. The cable extends from the rear of the contact holder. The substrate terminals are exposed at the bottom for termination to the substrate.

Abstract: An end cap for a weapon can include a sub-frame, a body, and a rail. The end cap is a modular buttstock interface cap (MBIC) with a NATO STANAG 4694 or MIL-STD-1913 (Picatinny) rail interface that provides interchangeability between braces, stocks, and other accessories for weapon systems, including weapons with recoil buffer systems within the weapon's receiver. The MBIC can be a three-dimensional-printed structure.

Abstract: The invention relates to a mounting frame (5) which comprises at least one PE contact (1) and can be inserted into the housing from a plug-in end and/or from a terminal end. The at least one PE contact (1) is arranged on the mounting frame (5). Previously known PE contacts can be contacted only from one end, whereas the disclosed PE contact (1) can be contacted from the terminal end and/or the plug-in end.

Abstract: An electrical connector module with openings in an insulative support selectively positioned to limit dielectric loss in a signal. The connector may include a first and second conductor including first and second sides between first and second edges. An insulative support holds the first conductor adjacent the second conductor and may have at least five pedestal portions, wherein the first pedestal portion contacts the first side of the first conductor, the second pedestal portion contacts the second side of the first conductor, the third pedestal portion contacts the first side of the second conductor, the fourth pedestal portion contacts the second side of the second conductor, and at least a portion of the fifth pedestal portion is disposed between two edges of the first and second conductors. The pedestal portions may have widths less than the widths of the first and second sides of the first and second conductors.

Abstract: In a typical connector, one or more ground terminals need to be, in addition to signal terminals, arranged between signal terminals formed in pairs or between one signal terminal pair and the other signal terminal pair. This leads to a problem that the number of components forming the connector is increased and an internal structure of the connector is complicated. A connector is provided, which is a substrate-side connector including two terminal groups arranged along a connector fitting direction to face each other, an insulator holding the terminal groups, and an outer conductor shell housing the insulator. In the substrate-side connector, a shell mounting portion for mounting the outer conductor shell on a substrate is, passing through between the two terminal groups, mounted between a mounting portion for a group of terminals of multiple terminals included in one terminal group and a mounting portion for a group of the terminals of multiple terminals included in the other terminal group.

Abstract: The electric connector conforms to the HDMI and DP specifications and includes at least an insulating member, a first conductor set, and a second conductor set. Each conductor includes a contact terminal, an intermediate conductor, and a welding terminal. A first grounding conductor in the second conductor set has forked intermediate conductors and welding terminals disposed respectively to two sides of a first high-frequency conductor pair in the first conductor set, thereby achieving the isolation and shielding of noise. Similarly, second to fourth high-frequency conductor pairs are respectively isolated and shielded by pairs of second to fourth intermediate conductors and welding terminals forked from the second to fourth grounding conductors. Through these grounding conductors, the electric connector is able to reduce electromagnetic or radio-frequency interference.

Abstract: An electrical connector assembly as well as a board connector and a cable connector thereof are provided, in which power terminals and signal terminal are designed with different terminal structures in response to different functions, in order to ensure delivery of power and signal between the board connector and the cable connector, as well as reduce volumes occupied by the power terminals and the signal terminal in the board connector and the cable connector respectively, for achieving the purpose of reducing feature dimensions of the electrical connector assembly as well as the board connector and the cable connector thereof.

Abstract: A vehicle lighting assembly can include a fixed connector receptacle attached to a wiring board and configured for connection to a moveable connector plug and lock cover. The moveable connector plug has electrical wires extending from a rear end and can be inserted into the fixed connector receptacle. The lock cover can mate with both the fixed connector and the moveable connector plug to keep both structures in place after connection. The lock cover is configured to be rotatable around a front positioning portion of the lock cover when engaged in a positioning opening of the fixed connector receptacle. A rear positioning tab of the lock cover engages with a rear engagement aperture located on the moveable connector plug when in the fully assembled position to lock the moveable connector plug within the fixed connector receptacle.

Abstract: It is aimed to provide a shield connector capable of avoiding enlargement. A shield terminal (40) includes inner conductors (41), a dielectric (42) surrounding the inner conductors (41) and an outer conductor (43) surrounding the dielectric (42). A housing (10) includes a cavity (14) for accommodating the shield terminal (40), a ground plate mounting portion (18) into which a ground plate (100) is to be mounted, and a separation wall (21) separating the ground plate mounting portion (18) and the cavity (14). A ground terminal (70) is arranged across the separation wall (21). The ground terminal (70) includes an outer conductor contact piece (71) configured to enter the cavity (14), a ground plate contact piece (72) configured to enter the ground plate mounting portion (18) and a coupling piece (73) coupling the ground plate contact piece (72) and the outer conductor contact piece (71).

Abstract: Connector inserts having retention features with good reliability and holding force. These connector inserts may include ground contacts that provide an insertion portion having a reduced length. These connector inserts may be reliable, have an attractive appearance, and be readily manufactured.

Abstract: A connector is provided having a plurality of leads generally arranged in columns extending substantially parallel each other in a column direction and being adjacent each other in a row direction. At least one first column includes at least one first pair of signal leads substantially parallel each other in a first pair direction to form a first differential pair. In at least a portion of the connector the first pair direction extends at an acute angle to the column direction. Further, an assembly, and a circuit board are provided.

Abstract: A bottomhole assembly may include a downhole motor and bearing assembly. The downhole motor may include a rotor and stator. The bearing assembly may include a bearing mandrel. The bearing mandrel may be coupled to the rotor by a transmission shaft. The bottomhole assembly may include one or more sensors positioned in the bearing mandrel, transmission shaft, or rotor. The bottomhole assembly may include a conductor that passes through one or more of the bearing mandrel, transmission shaft, and the rotor from the sensor to a communications package.

Abstract: An electrical connector used for mating a mating connector includes an insulation body having a base portion and a tongue extending from the base portion, terminals fixedly disposed in the base portion and grouped into an upper row and a lower row, and a middle shielding sheet embedded in the tongue and located between the upper and lower rows. The tongue has upper and lower surfaces arranged opposite to each other, and a front surface connected to the upper and lower surfaces. The upper and lower rows of terminals are exposed on the upper and lower, respectively. The middle shielding sheet has a front end surface extending out of the front surface, a slot formed on the front end surface, and a first projection portion extending into the slot, overlapping a central line of the middle shielding sheet along a longitudinal direction, and located behind the front surface.

Abstract: An electrical connector includes: an insulative housing; a single row of contacts secured to the insulative housing and each having a soldering tail; and a shielding shell enclosing the insulative housing and having an annular part and a pair of soldering portions; wherein the shielding shell annular part is seamless; and the soldering tails of the single row of contacts are arranged alternately in two rows within an outer profile of the shielding shell annular part.

Abstract: Apparatus, systems and methods associated with a pressure-balanced seismic sensor package are disclosed. One example of an apparatus can include a plurality of optical components, a sensor box enclosing the plurality of optical components, and a lid for the sensor box. The plurality of optical components, the sensor box, and the lid form a pressure-balanced seismic sensor package.

Abstract: A reversible dual-position electric connector comprises: an insulated seat provided with a base seat and one docking part, wherein the docking part is provided with two connection surfaces facing opposite directions; two terminal sets disposed on the insulated seat, wherein each of the terminal sets is provided with at least one row of terminals, and the contacts of the two terminal sets are exposed from the two connection surfaces of the docking part, respectively; and a metal housing, which covers the insulated seat and is provided with a four-sided primary housing; characterized in that a metal shell is further provided to rest against the metal housing, the metal shell is provided with a four-sided housing, the four-sided housing is fitted with and rests against the four-sided primary housing.

Abstract: Provided is a vehicle in which an electric power storage device is mounted and which is configured to execute external charging. The vehicle includes an inlet connected to a charging connector, a cable lock mechanism disposed near the inlet and switching between a lock state and an unlock state, and a control device selecting a first mode in which the electric power storage device is allowed to be charged at a first current value in a case where the cable lock mechanism is in the lock state with the charging connector and the inlet connected to each other and selecting a second mode in which the electric power storage device is allowed to be charged at a second current value in a case where the cable lock mechanism is in the unlock state with the charging connector and the inlet connected to each other.

Abstract: An electrical receptacle connector includes a metallic shell, an insulated housing, first receptacle terminals, second receptacle terminals, a shielding plate, and a terminal organizer. The insulated housing is in the receptacle cavity of the metallic shell. The first receptacle terminals are assembled with the insulated housing. The second receptacle terminals are assembled with the terminal organizer. The insulated housing and the terminal organizer are assembled with each other. The shielding plate is between the first receptacle terminals and the second receptacle terminals. The terminal organizer extends the fixation portion attaching to the front portions of the second receptacle terminals, so that the front portions of the second receptacle terminals are securely held on the tongue portion. Therefore, when the terminal organizer is deformed due to heating, the front portions of the second receptacle terminals can be still fixed on the tongue portion without being deflected upwardly.

Abstract: A connector unit (30) is configured to be connectable to a mating connector (10). The connector unit (30) includes a plurality of sub-connectors (40, 50, 60) and a frame (32). Each of the sub-connectors (40, 50, 60) includes a connector housing (42, 52, 62) and male terminals (46, 56, 66) held by the connector housing with male terminal portions (47, 57, 67) projecting out from the connector housing. The frame (32) includes a uniting frame portion (34) for holding the plurality of sub-connectors in a united state with the male terminal portions of the plurality of sub-connectors facing in the same direction and a surrounding frame portion (36) for surrounding the male terminal portions of the plurality of sub-connectors.

Abstract: An electrical connector includes an insulative housing, a plurality of terminals retained in the housing. The housing includes a base and a mating tongue extending forwardly from the base. The mating tongue forms opposite mating surfaces extending forwardly and vertically converging toward each other. The terminal includes a front contacting section, a middle retaining section rearwardly extending from the front contacting section, and a rear soldering section extending rearwardly from the middle retaining section. The front contacting section has two contacting faces respectively exposed upon the opposite mating surfaces of the mating tongue. Each terminal is made via stamping sheet metal and extends in a plane with a through hole in the front contacting section.

Abstract: An electrical connector includes a heat dissipation module with a first end and a second end opposed to the first end and two receptacle connectors located at the second end. The first and second ends define a transceiver-mating direction such that, when a transceiver is inserted into the first end of the heat dissipation module in the transceiver-mating direction, the transceiver mates with one of the two receptacle connectors, and in the heat dissipation module, air flows parallel to the transceiver-mating direction between the first and second ends and flows between the two receptacle connectors.

Abstract: To realize an insulating busbar that has both low inductance and high withstand voltage, provided is an insulating busbar that connects to a module on which is mounted a semiconductor chip, including a plurality of circuit conductors; a plurality of connection terminals that respectively electrically connect the circuit conductors to the module; and an insulating resin portion that is formed integrally between each of the circuit conductors and at least a portion of a region around each connection terminal and does not have any gaps between the circuit semiconductors.

Abstract: An electrical connector includes an insulating body, a shielding shell wrapping the insulating body to form an insertion space, and a first terminal group and a second terminal group fixed in an upper row and a lower row in the insulating body. The first terminal group and the second terminal group have multiple first terminals and multiple second terminals. Each first terminal and each second terminal are provided respectively with a first contacting portion and a second contacting portion. The first contacting portions and the second contacting portions are exposed in the insertion space. A ground member is arranged between two adjacent first terminals or two adjacent second terminals. The ground member has a third contacting portion. The third contacting portion only urges against the shielding shell.

Abstract: A component for an electrical connector, said component bearing a field of electrically conducting signal elements (12) electrically insulated from each other and a field of electrically conducting shield elements (10), the shield elements being electrically interconnected with each other. For each of the signal elements (12), in any partial circumference extending over an angle (?) of more than 160 degrees from this signal element at least one of the shield element (10) is arranged that is closer to this signal element (12) than the any other signal element (12) of the field of signal elements (12). Each of these shield elements extends across an angle (?) of less than 160 degrees from the signal element (12). The number of shield elements (10) is the number of the signal elements (12) times 3 or less.

Abstract: The connector is provided with a locking mechanism capable of engaging and disengaging with each other a receptacle and a plug. The receptacle is provided with a first housing and a first contact. The plug is provided with a second housing and a second contact. The first housing has at a recess portion a lock arm provided at its end with a hook portion. The second housing has at a header portion an engaging protrusion. When the header portion is inserted into the recess portion, the engaging protrusion rides over the hook portion, and the complete fitting of the receptacle and the plug can be felt. When the header portion is pulled out from the recess portion, the hook portion is displaced, and the plug can be readily pulled out from the receptacle.

Abstract: Connector inserts having retention features with good reliability and holding force. These connector inserts may include ground contacts that provide an insertion portion having a reduced length. These connector inserts may be reliable, have an attractive appearance, and be readily manufactured.

Abstract: An electrical connector includes an insulative housing and two rows of terminals reversely-symmetrically arranged in the insulative housing, each terminal having a contacting portion, a securing portion, and a tail portion, each row of terminals comprising a first and a second grounding terminals and a first and a second power terminals, each row of terminals lacking two terminals to thereby form a first vacant space between the first grounding terminal and the first power terminal and lacking another two terminals to thereby form a second vacant space between the second grounding terminal and the second power terminal. For each row of terminals, the width of the securing portion of each of the first grounding terminal, the second grounding terminal, and the first power terminal is greater than that of each of the remaining terminals. Each row of terminals include a third power terminal disposed in the second vacant space.

Abstract: A plug connector assembly having a first plug connector and a second plug connector, wherein the plug connectors each have at least two contact elements, wherein the contact elements of the first plug connector make contact with the contact elements of the second plug connector at contact points in the plug-connected state of the plug connector assembly, such that the contact elements of the two plug connectors are designed in the form of contact lugs which project into a free space and can be elastically deflected.

Abstract: A broadside coupled connector assembly has two sets of conductors, each separate planes. By providing the same path lengths, there is no skew between the conductors of the differential pair and the impedance of those conductors is identical. The conductor sets are formed by embedding the first set of conductors in an insulated housing having a top surface with channels. The second set of conductors is placed within the channels so that no air gaps form between the two sets of conductors. A second insulated housing is filled over the second set of conductors and into the channels to form a completed wafer. The ends of the conductors are received in a blade housing. Differential and ground pairs of blades have one end that extends through the bottom of the housing having a small footprint. An opposite end of the pairs of blades diverge to connect with the wafers.

Abstract: An electrical connector includes an insulating housing, first terminals, second terminals and a shielding shell. The insulating housing has a base portion and a mating portion, and the base portion has a mounting surface. The first terminals have a pair of differential signal terminals, a power terminal, and a grounding terminal, and the second terminals having the same type of terminals. The power terminal and the grounding terminal are disposed at two opposite sides of the pair of differential signal terminals, respectively. The first terminals and the second terminals have connecting legs extending out of the mounting face. The connecting legs of the power terminals and the grounding terminals are disposed at the middle area of the mounting surface, and the connecting legs of the differential signal terminals are respectively disposed at two opposite sides of the connecting legs of the power terminals and the grounding terminals.

Abstract: An electrical plug connector includes an insulated housing and a rear terminal organizer. The rear terminal organizer is assembled to the rear of the insulated housing. The rear terminal organizer includes a base and a gluing passage. The front of the base corresponds to the rear of the insulated housing. The width of the base is greater than the width of the insulated housing. The periphery of the base is protruded from the periphery of the insulated housing. The gluing passage is formed at a peripheral area of the base, and the gluing passage is defined through the base from the front to the rear.

Abstract: An electrical connector, defining an insertion port, a mating direction, a transverse direction perpendicular to the mating direction, and a vertical direction perpendicular to the mating direction and the transverse direction, includes an insulative housing, a number of terminals retained in the insulative housing, and a metal shell attached to the insulative housing. Each terminal has a soldering portion. The terminals have a number of grounding contacts, power contacts, and signal contacts. A maximum width of the power contact and the grounding contact is larger than that of the signal contact along the transverse direction.

Abstract: The present embodiments relate to providing electrical connectivity to electric-powered components mounted in parallel on a wiring board. An electrical apparatus is provided in which electricity is conducted from an electrically conductive member onto first and second electrically conductive pathways, of a wiring board through the use of first and second resiliently-deformable electrically conductive connectors. First and second electric-powered components are mounted to the respective first and second electrically conductive pathways. The first and second resiliently-deformable electrically conductive connectors are compressed between the electrically conductive member and the wiring board such that the first connector provides an electrical connection between the conductive member and the first electrically conductive pathway, and the second connector provides an electrical connection between the conductive member and the second electrically conductive pathway.