A connector assembly includes a first connector and a second connector matable with the first connector. The first connector has a first housing and a pair of first conductive terminals disposed in the first housing each having a pair of first elastic terminals arranged symmetrically in a vertical direction. Each pair of first elastic terminals has a pair of front ends adapted to be brought into elastic and electrical contact with a pair of first wires inserted into the first connector. The second connector has a second housing and a pair of second conductive terminals disposed in the second housing each having a rear end adapted to be brought into elastic and electrical contact with a second wire inserted into the second connector. The pair of first elastic terminals each have a rear end adapted to clamp a front end of one of the second conductive terminals.

The disclosure provides an electric energy storage device which includes four energy units with a substantially same voltage value. Each energy unit is provided with a positive electrode and a negative electrode. The electric energy storage device comprises a socket with eight independently arranged electrode terminals that are connected with the four energy units. The disclosure also provides an electric tool system using the electric energy storage device. The electric tool is provided with plugs that may be connected with the four energy units in different states, allowing the electric energy storage device to output multiple voltages.

The disclosure provides an electric energy storage device which includes four energy units with a substantially same voltage value. Each energy unit is provided with a positive electrode and a negative electrode. The electric energy storage device comprises a socket with eight independently arranged electrode terminals that are connected with the four energy units. The disclosure also provides an electric tool system using the electric energy storage device. The electric tool is provided with plugs that may be connected with the four energy units in different states, allowing the electric energy storage device to output multiple voltages.

A connector includes a connector terminal having a flat connection surface that faces a counter connector terminal, at least one spherical ball disposed on the connection surface, at least a surface of the ball having electrical conductivity, a ball retaining portion retaining the ball such that the ball is rotatable, a ball guiding portion fixed to the connector terminal and holding the ball retaining portion such that the ball retaining portion is movable in a two-dimensional manner along the connection surface, and a terminal spring pressing the counter connector terminal or the connection surface of the connector terminal in such a direction that the counter connector terminal and the connection surface approach each other.

A connector includes a connector terminal having a flat connection surface that faces a counter connector terminal, at least one spherical ball disposed on the connection surface, at least a surface of the ball having electrical conductivity, a ball retaining portion retaining the ball such that the ball is rotatable, a ball guiding portion fixed to the connector terminal and holding the ball retaining portion such that the ball retaining portion is movable in a two-dimensional manner along the connection surface, and a terminal spring pressing the counter connector terminal or the connection surface of the connector terminal in such a direction that the counter connector terminal and the connection surface approach each other.

An electronic device includes a first printed circuit board (PCB) including an opening, and a plurality of first connecting terminals disposed to be spaced apart from each other along a circumference of the opening, a camera module including a second PCB, and a connecting interface including an interface body connected to a lower end of the camera module. A plurality of second connecting terminals formed of an elastic material and are disposed to be spaced apart from each other along a circumference of the interface body to be electrically connected to the second PCB. The connecting interface is inserted into the opening so that the first connecting terminals are electrically connected to one respective second connecting terminal of the plurality of second connecting terminals, and a relative position of the connecting interface with respect to the opening is fixed by an elastic force of the plurality of second connecting terminals.

The present invention provides an optical-electrical connector for inserting into an optical adapter, comprising an optical connector module, an electrical connector module, a base, and a sliding cover. The electrical connector module is slidably coupled to the optical connector module and is locked when inserting into the optical adapter. The base comprises a through hole and the electrical connector module is slidable connected to the through hole. The sliding cover is slidably coupled to the base, wherein after the electrical connector module is released from the optical adapter by sliding the sliding cover, the optical connector module is released from the optical adapter.

An optical module, a communication device, and a Power over Ethernet (PoE) device are provided. The optical module includes a housing, an optical component, and a power supply component. The housing has a first socket and a second socket. The optical component also includes a first optical connector, an optical-to-electrical conversion component, and a second optical connector that are sequentially connected. The power supply component includes a first electrical connector, a power supply line, and a second electrical connector that are sequentially connected. The first socket is configured to insert a composite cable that matches the optical module. A power connector of the composite cable can be connected to the communication device by using the optical module, and the power connector of the composite cable does not need to be inserted into the communication device, so that panel space of the communication device can be reduced and miniaturization facilitated.

A sliding power contact and method includes a mobile load device connector and a socket. The mobile load device connector includes a non-current power pin having a first length, a current power pin having a second length less than the first length, a neutral pin, and a ground pin. The socket includes a non-current power contact configured to electrically couple with the non-current power pin, a current power contact configured to electrically couple with the current power pin, a neutral contact configured to electrically couple with the neutral pin, and a ground pin configured to electrically couple with the ground pin. An arc suppressor is directly coupled to at least one of the non-current power pin and the non-current power contact, wherein the arc suppressor, the non-current power pin and the non-current power contact form a current path between the current power pin and the current power contact.

Various crimpless electrical connector assemblies are disclosed. The crimpless connector can include a crimpless contact configured to join two electrical conductors. A portion of the crimpless contact can be received in an outer housing that comprises a tapered lumen. The crimpless contact can be coupled to an activation unit, such as with a threaded connection. Rotation of the activation unit can cause the crimpless contact to translate within the outer housing and the tines to be compressed against the first conductor, thereby physically securing the first conductor in the crimpless connector.