An electrical connector includes a metallic shell, an insulative housing received by the metallic shell, plural terminals retained in the insulative housing, an insulative cover receiving the metallic shell and the insulative housing, and a fixing member insert-molded at a bottom of the insulative cover, wherein the fixing member has a body and a protrusion entirely bordered by the body.

A cable card assembly includes a circuit card having cable conductors at a cable end and cables terminated to the circuit card having signal conductors and ground shields surrounding the corresponding signal conductors to provide electrical shielding for the signal conductors. The signal conductors include exposed portions terminated to corresponding cable conductors. The cable card assembly includes a ground bus electrically connected to the ground shields. The ground bus includes a molded body having tunnels receiving the exposed portions of corresponding signal conductors. The molded body is contoured to control impedance along the exposed portions of the signal conductors.

A system and flexible mounting structure for solder joint stress reduction are disclosed that provide flexibility on a printed circuit board that includes an input output (I/O) connector when wrenching or torque forces are applied. A bracket supporting the connector is mounted on one side of the PCB, and a hinge saddle structure is mounted on the other side of the PCB. A bottom structure is connected to the hinge saddle structure by screw bosses. The bottom structure and the hinge saddle structure are connected to a chassis of an information handling system. An area of the PCB as defined by the bracket is provided flexibility when forces are applied.

An eye-of-needle terminal, comprising a base portion (1), a pin portion (3), and an elastic portion (2) disposed between the base portion and the pin portion. The elastic portion is provided with an eye-of-needle hole (4), and the extension direction of the eye-of-needle hole is the same as that of the elastic portion. The eye-of-needle hole comprises flared holes (42) located at both ends and a connecting hole (41) located between the two flared holes. The width of the end of each flared hole facing the connecting hole is greater than the width of the end distant from the connecting hole. Thereby not only ensuring that the eye-of-needle terminal is very easy to insert, but also ensuring that the eye-of-needle terminal forms a good connection with a conductive through hole after being inserted and does not easily come out of the conductive through hole.

A backplane connector includes a housing and a number of wafers assembled to the housing. Each wafer includes a number of conductive terminals, an insulating frame and a metal shield. The housing includes an insulating housing and a metal shell fixed to the insulating housing. The insulating housing includes a number of slots for positioning the wafers. The metal shell is provided with a mating surface and a number of terminal receiving grooves. The contact portions of the conductive terminals are exposed in the corresponding terminal receiving grooves. The present disclosure improves the structural strength of the backplane connector and reduces the risk of damage the mating surface due to the push or collision of a mating connector.

The present invention discloses a connecting assembly, applied to the technical field of wearable devices. The connecting assembly is used for connecting a main body assembly and an electric control assembly of an assembly-detachable intelligent apparatus, and includes a first connector. The connecting assembly is detachably connected to the main body assembly in a first connecting mode. The main body assembly is electrically connected to the first connector. The electric control assembly includes a second connector. The connecting assembly is detachably connected to the electric control assembly in a second connecting mode and/or a third connecting mode. The first connector is electrically connected to the second connector. The present invention further discloses an assembly-detachable intelligent apparatus, which includes a main body assembly, an electric control assembly and a connecting assembly.

A plug electrical connector including a body and a plurality of cable terminals is provided. The body includes a top surface, two side surfaces opposite to each other, at least one locking slot, and a pair of locking protrusions. The top surface is bordered between the two side surfaces, the locking slot is located on the top surface, and the locking protrusions are located on the side surfaces. The cable terminals penetrate through the body and are arranged between the side surfaces in an axial direction. The plug electrical connector is adapted to be butted to a receptacle electrical connector and is engaged with the receptacle electrical connector with the locking slot and the locking protrusions. A receptacle electrical connector is also provided.

A signal connector comprises: a first part, having at least one electrical contact part, and a first body configured to be electrically insulating; a second part, having at least one electrical pin, and a second body configured to be electrically insulating and separate from the first body, and the electrical pin is configured to protrude from the second body; and an electrical connection body, extending from each electrical contact part to each electrical pin, in order to establish an electrical connection between the electrical contact part and the electrical pin, wherein the electrical connection body is configured to be deformable and comprises at least two bending parts, and at least part of the electrical connection body is located outside the first part and the second part, such that the position of the second part relative to the first part is variable.

An insert molded connector includes a plurality of wires arranged in parallel, a coating insulating layer, and a tongue. The plurality of wires are configured to transmit electrical signals. The coating insulating layer covers main portions of the wires to expose the contact portions of the wires. The tongue is insert molded to cover the contact portion and a portion of the coating insulating layer close to the contact portion to expose a contact surface of the contact portion.

A power adapter assembly structure is disclosed and includes a housing, a circuit board, a socket and an elastic element. The circuit board including a first abutting surface and the socket including a second abutting surface are fastened in the housing. The elastic element connected between the circuit board and the socket includes a main body, a first hanging arm and a second hanging arm. The first hanging arm and the second hanging arm are disposed at two opposite ends of the main body, and constantly abuts the first abutting surface and the second abutting surface, respectively. A first gap is formed between the main body and the first abutting surface, and less than a first length of the first hanging arm. A second gap is formed between the main body and the second abutting surface, and less than a second length of the second hanging arm.