A connector for connecting control conductors provided in conduits also containing power conductors, the connector including a first guide for receiving a first at least one control conductor provided in a first conduit also containing at least one power conductor, a second guide for receiving a second at least one control conductor provided in a second conduit also containing at least one power conductor, at least one jumper for electrically connecting the first at least one control conductor and the second at least one control conductor and a housing for containing the first guide, second guide and the at least one jumper.

A joint connector for connecting a plurality of wires includes a lower housing, an upper cover assembled with the lower housing, a plurality of terminals respectively connected to front end parts in an extending direction of the plurality of wires, and a busbar connected to the plurality of terminals. The busbar disposed in the lower housing includes a plurality of tabs. Each of the plurality of terminals disposed in the lower housing includes a tube portion, each of the plurality of tabs being inserted into the tube portion, sandwiching portions extending along the extending direction and configured to sandwich one of the plurality of wires, and a sliding portion disposed outside the sandwiching portions, movable along the extending direction and including pressurizing portions configured to pressurize the sandwiching portions toward the wire with the one of the plurality of wires sandwiched by the sandwiching portions.

There is provided a joint connector including: a ground terminal member integrally formed by a plate-shaped fixing portion fixed to a ground portion, a body horizontal plate portion extending from the plate-shaped fixing portion, a body rising plate portion formed by bending in a rising direction, a terminal connection portion provided formed with a plurality of terminal connecting portions electrically connectable with a counterpart terminal, and a coupling piece; and a housing integrally formed by a housing body portion in which the body rising plate portion and the terminal connection portion are insert-molded in a state where the plurality of terminal connecting portions are protruded for connecting the counterpart terminal, and a reinforcing rib portion provided to couple a resin portion covering the coupling piece and a resin portion covering the terminal connection portion.

There is provided a joint connector including: a ground terminal member made of a conductive metal, and configured by integrally forming a plate-shaped fixing portion fixed to a ground portion, the body horizontal plate portion extending from the plate-shaped fixing portion, the body rising plate portion formed by bending the body horizontal plate portion in a rising direction at a bent portion, the terminal connection portion provided above the body rising plate portion, and the crank-shaped bent portion bent in a crank shape near the terminal connection portion in the body rising plate portion; a housing to which the ground terminal member is insert-molded; and a primer treatment portion applied to an outer peripheral surface of the body rising plate portion on a side of the body horizontal plate portion with respect to the crank-shaped bent portion.

A terminal fitting comprising: a first terminal portion in which first tab portions, extending from a first tab continuous connecting portion, are arranged; a second terminal portion in which second tab portions, extending from a second tab continuous connecting portion, are arranged; a connecting portion connecting the first and second terminal portions; and a contact portion to be connected to an external terminal. The terminal fitting has a three-dimensional shape in which the terminal fitting having a preliminary shape is bent at the connecting portion. In the three-dimensional shape, the first terminal portion and the second terminal portion are three-dimensionally arranged to be connected at the connecting portion. In the preliminary shape, the first terminal portion and the second terminal portion are arranged to be fitted to each other, and the first tab continuous connecting portion and the second tab continuous connecting portion are connected at the connecting portion.

It is aimed to simplify the shape of a short-circuit means. A joint connector (A) includes a housing (10), a plurality of terminal fittings (35F, 35S, 35T) provided in the housing (10) and each formed such that a plurality of tabs (37F, 37D, 7R) are coupled by a terminal base portion (36), and a short-circuit module (40) provided in the housing (10) and formed by arranging a plurality of short-circuit plates (42) side by side in a length direction of the tabs (37F, 37D, 37R). The short-circuit plate (42) is formed with a plurality of conduction holes (45) for allowing the tabs (37F, 37D, 37R) to pass therethrough in a contact state and non-contact holes (44) for allowing the tabs (37F, 37D, 37R) to pass therethrough in a non-contact state, and an arrangement of the plurality of conduction holes (45) differs among the plurality of short-circuit plates (42).

An electronic device includes: a connector that is to be electrically connected to a shunt resistor; a circuit board electrically connected to the connector; and a case within which the circuit board is provided and which has, at an outer side of the case, a base on which the shunt resistor is to be mounted and a protruding part provided apart from the base, the protruding part has a first protrusion on a leading end of the protruding part, and the base and the protruding part are to hold the shunt resistor interposed therebetween, and the first protrusion is to engage with the shunt resistor, whereby the shunt resistor is to be fixed in a state where the shunt resistor is connected to the connector.

A contact and busbar assembly forms a bus system on electronics housings arranged in an array. An electronics assembly such as a circuit board is arranged in each housing. The contact and busbar assembly includes multiple bus plugs each having first connecting contacts for contacting a respective circuit board, second terminal contacts in the form of one or more socket contacts and power rail strips. The power rail strips have at least one flexibly deformable section or are continuously flexibly deformable. Alternatively, the socket contacts are insertable not only parallel but also obliquely in relation to the power rail strips extending in the direction of the array for contact by the socket contacts.

A contact and busbar assembly forms a bus system on electronics housings arranged in an array direction. Each housing includes a circuit board. The contact and busbar assembly includes multiple bus plugs having first connecting contacts for electrically contacting the circuit boards and second connecting contacts in the form of socket contacts for electrically contacting power rail strips. A plurality of power rail strips electrically connects the second connecting contacts of adjacent electronics housings. A first power rail strip electrically connects the bus plugs of two directly adjacent electronics housings and a second power rail strip of greater length electrically connects two spaced electronics housings. An electronics housing assembly is provided having multiple electronics housings arranged against one another in the array direction and a contact and busbar assembly as set forth above. A method for removing or replacing an electronics housing arranged between two adjacent electronics housings of such an electronics housing assembly is also provided.

A power device with multiple electrifying modes is disclosed. The power device includes a casing, a power wire, a receptacle unit, a connecting port unit, a circuit unit and a wireless charging module. The power wire is coupled to an alternating current power source. The receptacle unit and the connecting port unit are disposed on the casing. The circuit unit is coupled to the power wire, the receptacle unit and the connecting port unit. The circuit unit rectifies the alternating current power source to a direct current power source and provides the connecting port unit with the direct current power source. The circuit unit further provides the receptacle unit with the alternating current power source. The wireless charging module is coupled to the circuit unit. The circuit unit drives the wireless charging module to generate an electromagnetic field, so as to induct an electric potential for power supply.