A connection assembly includes a composite pane composed of a first pane and a second pane, which are connected to an intermediate layer, and an electro-optical functional element having an active layer arranged between two surface electrodes, which electro-optical functional element is arranged between the first pane and the second pane, wherein in each case a single flexible bus bar in the form of a strip is applied on the two surface electrodes, wherein the bus bar is folded over and routed out of the composite pane.

An electrical contactor assembly includes an electrical contactor having an electrical lead having a contactor pin extending therefrom, an electrical bus bar, and at least one post extending between the electrical contactor and the electrical bus bar. The post is constructed from an electrically and thermally conductive material. The post includes an opening for receiving the contactor pin and the opening includes a contactor-foil material disposed in contact with the pin.

A connector that includes a contact, a connection piece, and a cooling unit. The connection piece is received by the contact, and the cooling unit is connected to the connection piece. The cooling unit includes a heat sink spaced from the contact, a first heat exchanger section between the contact and the connection piece, a second heat exchanger section positioned in the heat sink and in communication with the first heat exchanger section, and a heat transfer medium that circulates between the first heat exchanger section and the second heat exchanger section.

A connection terminal and a connector are disclosed. The connection terminal has a terminal body, at least part of which is installed in a housing of a connector; and a first connection part arranged at one end of the terminal body and extending outside the housing to electrically connect with a bus bar. The first connection part has a plurality of side surfaces, and any one of the adjacent two side surfaces is selectively formed to match and connect with a surface of a connection end of the bus bar. In the present invention, the installation orientation of the connector can be any one of four or more different directions, which expands the application range of the connector.

The present disclosure relates to a connector for a bus bar including a bar-shaped finger divided into a central portion, a pair of end portions symmetrically formed on opposite sides of the central portion, and a pair of connecting portions respectively formed between the central portion and the pair of end portions. The connector for a bus bar includes: a plurality of fingers, at least two or more of which are stacked in the thickness direction perpendicular to the longitudinal direction to form one side portion and at least two or more of which are stacked in the thickness direction to form the other side portion disposed opposite to the one side portion; a pair of coil springs, one end and the other end of which is fixed to the one side portion and the other side portion to be arranged at a predetermined distance apart from each other with respect to the central portion of the finger; and a bracket for supporting the one side portion and the other side portion.

A connector includes a pair of terminals. Each of the terminals includes a first sub-terminal having a first fixation part and a plurality of first elastic arms extending from the first fixation part, and a second sub-terminal having a second fixation part and a plurality of second elastic arms extending from the second fixation part. The first fixation part of the first sub-terminal is laminated on the second fixation part of the second sub-terminal, and the plurality of first elastic arms and the plurality of second elastic arms are alternately arranged in a row for electrically contacting with a shared bus bar.

A socket connector is configured to mount to a component, such as a printed circuit board. The socket connector includes a base having a passageway and a channel extending outwardly from the passageway, a barrel including a wall having a flange extending outwardly therefrom, at least one biasing member engaging the flange and surrounding the wall, and a contact seated within the barrel. The wall is seated within the passageway and the flange is seated within the channel. The barrel is configured for movement within the base to align a centerline of a pin inserted into the socket connector with a centerline of the hole of the component.

A bus bar assembly is provided and includes a first linking bus bar, a second linking bus bar and plural power connectors. The first linking bus bar includes a first main bar, a first bending part, a first conducting part and plural second conducting parts. The second conducting parts connect with the first main bar, respectively. The first bending part connects between the first main bar and the first conducting part. The second linking bus bar is disposed corresponding to and isolated from the first linking bus bar, and includes a second main bar, a second bending part, a third conducting part and plural fourth conducting parts. The fourth conducting parts connect with the second main bar, respectively. The second bending part connects between the second main bar and the third conducting part. The power connectors are electrically coupled with the second conducting parts and the fourth conducting parts.

A power connector assembly includes a busbar having a mounting surface and openings extending into the busbar being open at the mounting surface and power contacts arranged in a power contact array electrically connected to the busbar. Each power contact includes a main body, a first compliant pin extending from the main body, and a second compliant pin extending from the main body. The first compliant pin is received in the corresponding opening of the busbar to electrically connect the power contact to the busbar. The second compliant pin is configured to be received in a plated via of a printed circuit board to electrically connect the power contact to the printed circuit board. The power contact array mechanically and electrically connects the busbar to the printed circuit board.

A bus bar assembly comprises a first bus bar and a second bus bar. Each bus bar comprises a bridge flange having a first side and a second side, top and bottom flanges extending from the first side of the bridge flange, and an interface flange extending from the second side of the bridge flange. The bus bar assembly further comprises a first insulation layer positioned between the top flanges of the first and second bus bars and a second insulation layer positioned between the bottom flanges of the first and second bus bars. Each of the top and bottom flanges comprises a plurality of mating devices coupled thereto. The top flanges of the first and second bus bars and the first insulation layer are fixedly joined together. The bottom flanges of the first and second bus bars and the second insulation layer are fixedly joined together.