A battery provided with at least one battery cell electrically coupled to a battery management circuitry, a power regulation and supply circuitry, a USB-C port controller, an E-marker integrated circuit and a USB interface. The E-marker integrated circuit provided in-line along a CC conductor between the USB-C port controller and the USB interface. The USB-C port controller is configured to enable the E-marker integrated circuit upon reception of a vendor defined message via the USB interface which enables a high power delivery mode between the battery and a device without the presence of a separate interconnecting E-marker cable there between.

A robotic wire termination system for efficiently and accurately connecting a plurality of wires to an electrical connector having a plurality of connector pins with corresponding wire receptacles. The system generally includes a housing, a removable alignment plate, a robotic positioner, a heating device, a touch responsive display, and a control unit. The alignment plate removably holds a selected electrical connector in a specific position and orientation with the connector pins exposed in the housing and the wire receptacles exposed outside. The display provides a visual representation of the connector pins and selections of the connector pins. The control unit receives inputs indicating the pin selections and controls the robotic positioner to sequentially move the heating device along three orthogonal longitudinal axes to a series of heating positions relative to the selected connector pins to provide heat for melting solder to connect wires to the wire receptacles.

A connector is mateable with a mating connector along a front-rear direction. The connector comprises a first sub connector and a second sub connector. The first sub connector and the second sub connector are mateable with each other in a direction intersecting with the front-rear direction. The first sub connector comprises a first holding member and a plurality of first terminals. The second sub connector comprises a second holding member and a plurality of second terminals. The second terminals are arranged in two rows. Each of the second terminals has a second contact point and an SMT portion. The SMT portion is configured to be fixed on a circuit board. The SMT portion of the second terminal of one of the two rows extends in an orientation opposite to an orientation in which the SMT portion of the second terminal of a remaining one of the two rows extends.

A connector may include a first housing configured to detachably secure a first input cable of a first sensor configured to generate a first signal, and a second housing configured to detachably secure a second input cable of a second sensor configured to generate a second signal. The second housing may be configured to transmit the second signal from the second input cable to the first housing. The first housing may be configured to transmit at least one of the first signal and the second signal to an output cable. A coupling of the first housing may be configured to mate with a coupling of the second housing such that the first housing and the second housing are configured to be detachably secured to each other. The coupling may be mechanical, electro-mechanical, or magnetic. Either sensor may be an electrocardiogram sensor or a pulse oximetry sensor.

An electrical built-in plug connector having a housing with at least one mounting structure projecting transversely to the longitudinal axis of the housing, with more than five electrical contacts fixed in the housing, wherein the contacts are guided outwards at one end of the housing parallel to the longitudinal axis of the housing, wherein the end sections of the sections of the contacts located outside of the housing are angled relative to their sections located inside the housing, and their connection sections provided for connecting to a circuit board end in a common plane, which plane is parallel to the longitudinal axis of the housing, wherein the connection regions are arranged in groups, and the individual groups are situated on at least three parallel straight lines, which are part of the common plane, wherein the ends of the sections of the contacts guided in parallel out of the housing have the same distance in the direction of the longitudinal axis of the housing as the parallel straight lines.

A plug for use in an electrical connector system includes a handle body assembly comprising a handle body and a flange disposed on an end of the handle body. The flange defines a plurality of openings. A sleeve assembly includes a sleeve and a flange disposed on an end of the sleeve. The flange on the sleeve defines a plurality of openings. The openings in the flange on the handle body are aligned with the openings in the flange on the sleeve. A contact assembly is disposed, at least partially, in the sleeve of the sleeve assembly. The contact assembly includes a contact holder and a plurality of contacts coupled to the contact holder. Fasteners extend through the aligned openings in the flanges to secure the handle body assembly to the sleeve assembly.

A socket (10) includes a first insulator (20), a second insulator (30), and contacts (50). The first insulator (20) is in the form of a frame. The second insulator (30) is movable relative to the first insulator (20). The contacts (50) each include a support portion supported by the first insulator (20) and are disposed within the second insulator (30). The contacts (50) each include an elastic portion (54) and a movable portion (55). The elastic portion (54) is linked to the support portion and is located between the support portion and the second insulator (30). The movable portion (55) includes a contacting portion (55c) for contact with a connection object (60). The movable portion (55) is farther than the elastic portion (54) from a periphery of the second insulator (30) and is movable relative to the second insulator (30).

An electrical connector including an insulating body, multiple terminals, a shell, and a sealing adhesive is provided. The terminals are disposed in the insulating body. The shell is assembled to the insulating body. The shell has an insulative exterior shell, surrounding the insulating body and the terminals. Portions of the insulating body and the terminals protruding from a front side of the insulative exterior shell are configured to be connected to another electrical connector. The sealing adhesive is filled between the shell and the insulating body and located at a rear side of the insulative exterior shell.

An electrical connecting device having a main body and a displacement body mounted in a linearly movable manner relative to one another in a longitudinal direction. The main body has a cavity that accommodates a longitudinal section of the displacement body or vice versa. The length of the longitudinal section accommodated in the cavity is variable by a relative longitudinal movement of the main body and the displacement body. The main body has conductor tracks extending in the longitudinal direction and insulated from one another. The displacement body has sliding elements insulated from one another and resting on and electrically contacting a contact surface of a respective one of the conductor tracks. The conductor tracks are arranged on a main body surface of the main body. The main body surface is round in a cross-sectional plane perpendicular to the longitudinal direction or is formed by a plurality of surface sections angled in relation to one another. The sliding elements project from a displacement body surface of the displacement body. The displacement body surface is round in the cross-sectional plane or is formed by a plurality of surface sections angled in relation to one another. The contact surfaces of at least two of the conductor tracks are angled in relation to one another.

A connecting apparatus comprising a holding member and a conductive member. The holding member has holding portions. The conductive member has a plurality of held portions, a plurality of contact portions, a plurality of extending portions and a plurality of coupling portions. Each of the extending portions extends rearward in a front-rear direction from one of the held portions and protrudes rearward in the front-rear direction beyond the holding portion. The extending portions are positioned apart from each other in a right-left direction. The coupling portions are positioned apart from each other in the right-left direction. The coupling portions are positioned rearward of the extending portions in the front-rear direction. Each of the coupling portions couples two of the extending portions with each other. Two of the held portions, which are adjacent to each other in the right-left direction, are coupled with the two extending portions, respectively.