Abstract: An example electrical connector is capable of being fixed to a circuit board and includes a first insulating housing having a front end provided with a first coupling cavity and a receiving cavity provided on a lateral side of and laterally aligned with the first coupling cavity. The electrical connector includes a plurality of first conductive terminals, respectively provided on upper and lower sides of the first coupling cavity, where each first conductive terminal includes a first contact portion extending forwards and a wiring portion extending backwards. The electrical connector further includes a plurality of conducting wires, respectively connected to the wiring portions of the plurality of first conductive terminals, and a second insulating housing, inserted into the receiving cavity of the first insulating housing. The electrical connector also includes a plurality of second conductive terminals, fixed on the second insulating housing.

Abstract: An electrical connection device includes a cable-end connector. The cable-end connector includes an insulative housing, a circuit board, a cable and a locking member. The insulative housing has a body portion and a mating portion. The body portion is formed with a first opening, the mating portion is connected to the body portion and has a continuous surrounding wall which encircles the first opening, the continuous surrounding wall encircles to form an inner cavity, the inner cavity has a second opening. Each of two opposite sides of the body portion and the mating portion therebetween form a positioning space. The circuit board is provided to the body portion, partially extends out of the first opening and extends to the inner cavity. The cable is electrically connected to a side of the circuit board. The locking member is provided to the insulative housing. The cable-end connector can firmly mate with the board-end connector, so that stability of electrical signal transmission can be promoted.

Abstract: Apparatus for routing optical wavelengths over one or more optical fibers from a first physical site to a second physical site.

Abstract: Connector assemblies for high speed data communication are described. In one example, a connector assembly includes a plug mating interface, a surface mating interface, and a wafer assembly between the plug mating interface and the surface mating interface. The wafer assembly includes a wafer insert, a channel shield, a plurality of signal conductors extending within the channel shield, a conductive gasket positioned over open edges of the channel shield, and a shield cover positioned over the conductive gasket. The conductive gasket can be embodied as a conductive elastomeric gasket and provides a conductive shield over open edges of the channel shield. The conductive gasket can be positioned between the shield cover and the open edges of the channel shield. The conductive gasket and the shield cover help to enclose open areas in the channel shield and provide additional shielding for the signal conductors.

Abstract: A connector assembly includes a shielding cage, a partitioning assembly and a plurality of supporting members. The shielding cage has a plurality of walls and an internal space defined by the plurality of walls, the plurality of walls includes two side walls. The partitioning assembly is assembled to the two side walls of the shielding cage and partitions the internal space into two inserting chambers arranged up and down, the partitioning assembly includes two partitioning plates which are arranged up and down and two grounding elastic pieces which are respectively assembled to front ends of the two partitioning plates, the two partitioning plates are spaced apart from with each other by a preset interval to together constitute an air flow passageway and a front end opening positioned to a front end of the air flow passageway. The plurality of supporting members are supported between the two partitioning plates.

Abstract: Exemplary embodiments are disclosed of bridge inverters for wireless charging. In an exemplary embodiment, a bridge inverter circuit includes a bridge driver and first and second transistors (e.g., metal-oxide-semiconductor field-effect transistors (MOSFETs), etc.) coupled with the bridge driver. First and second power inductors are respectively coupled with the first and second transistors. A resonant tank is coupled with the first and second transistors and the first and second power inductors. The bridge inverter circuit may include only one bridge driver and only two transistors. The first and second power inductors may be located before the bridge inverter stage such that the first and second power inductors are in the DC domain rather than the AC domain. The resonant tank may include at least one additional inductor-capacitor (LC) component. The bridge inverter circuit may be configured to be operable for producing half sine waves for each half cycle.

Abstract: An electrical terminal includes a contact partially surrounded by a hood. In an embodiment, the contact has a deflectable contact beam and an indentation with which a male terminal engages. In an embodiment, the hood has a polarization rib having at least one flap which is configured to expand the seal. The electrical terminal is used with a connector assembly having a housing forward of a seal and a seal cover rearward thereof. A first length is defined between ends of the portion of the hood that surrounds the contact and a second length is defined between the ends of the seal. In an embodiment, the first length is a minimum of 1.1 times the second length.

Abstract: The present disclosure includes: a connector body; and a terminal attached to the connector body, the connector being mated with a counterpart connector, wherein the connector body includes a recessed groove part and a pair of side walls extending in a longitudinal direction of the connector body, arranged in parallel demarcating both sides of the recessed groove part, the terminals are arranged with a plurality along each wall forming a pair of terminal group rows in parallel, where ground terminals included in each terminal group row are arranged in mutually facing positions, at least one ground terminal included in each terminal group row includes a board connecting part positioned to the inside of the connector body in the width direction and a board connecting part positioned to the outside of the connector in the width direction, and the board connecting part positioned on the inside is longer than the board connecting part positioned on the outside.

Abstract: The present disclosure provides a connector assembly comprising a shielding cage and a liquid cooling cabin. The shielding cage has an insertion space and a window in communication with the insertion space. The liquid cooling cabin is configured to allow a cooling liquid to circulate and flow inside, the liquid cooling cabin comprises a shell having an opening, a thermal coupling cover provided at the opening of the shell, and an elastic sealing unit sealing a gap between the thermal coupling cover and the shell, the thermal coupling cover having a thermal coupling plate entering into the insertion space via the window of the shielding cage, the thermal coupling plate being capable of elastically moving in a direction close to the shell and elastically restoring in a direction away from the shell by a function of the elastic sealing unit.

Abstract: A connector is configured to be mounted to first and second electrical components. The connector includes an insulative housing having latches which can be pressed into a pressed condition, and a conductive body and a lock mounted within the housing. The body has engagements configured to be coupled to the electrical components. The lock is in contact with the latches and is movable therewith when the latches are pressed. The lock engages with a coupling pin of one of the electrical components to secure the electrical component to the connector.

Abstract: The housing of the connector has insertion paths into which flat cables can be inserted. The connector also has a plurality of partition portions, which are formed of an elastic material. The partition portions are arranged along the insertion paths. When the flat cables are inserted into the insertion paths, the partition portions are positioned between the two adjacent conductor lines.

Abstract: An electrical connection device includes a through-type connector, a first cable-end connector and a second cable-end connector. The through-type connector includes an outer shell and a plurality of pins, the outer shell is formed with a first cavity and a second cavity, the first cavity has a first independent insertion groove and a second independent insertion groove. The first cable-end connector is provided to be capable of independently inserting into the first independent insertion groove and includes a first insulative housing, a first terminal position assurance member, a plurality of first terminals and a plurality of first conductive wires. The second cable-end connector is provided to be capable of independently inserting into the second independent insertion groove and includes a second insulative housing, a second terminal position assurance member, a plurality of second terminals and a plurality of second conductive wires.

Abstract: A plug connector according to an embodiment of the present disclosure, wherein the housing of the plug connector includes a mating portion extending forward and a latching portion equipped in the housing. The latching portion may include, as a root having a lower end connected to the upper surface of the housing, a root extending to the upper end with the lower end of the root as a first fulcrum to form a cantilever structure; and as a pair of latching arms having a rear end connected to an upper end of the root, a pair of latching arms extending to the front end with the upper end of the root as a second fulcrum to form a pair of hooks. Each front end of the pair of latching arms may include an outward protrusion.

Abstract: A connector assembly includes a shielding cage, a light guiding pipe and a base. The shielding cage has a plurality of walls and an accommodating space defined by the plurality of walls. The light guiding pipe is assembled to the shielding cage, the light guiding pipe has a light outputting end, a light inputting end and a first assembling portion at a location of the light guiding pipe adjacent to the light inputting end. The base has a light guiding pipe accommodating hole and a second assembling portion provided to the light guiding pipe accommodating hole.