Abstract: An electrical connector for a cable includes a PCB and a fixed element for holding the PCB. The PCB includes several first contacting fingers and second contacting fingers electrically connected to each other at different sides along a first direction. The first and second contacting fingers are respectively arranged along a second direction perpendicular to the first direction to be disposed in two rows. The second contacting fingers are connected to the cable. Wherein said PCB is longer than said fixed element so as to expose first contacting fingers at a front side of the fixed element along the first direction and form a mating port for a mating connector.

Abstract: An electrical connector for a cable includes a PCB and a fixed element for holding the PCB. The PCB includes several first contacting fingers and second contacting fingers electrically connected to each other at different sides along a first direction. The first and second contacting fingers are respectively arranged along a second direction perpendicular to the first direction to be disposed in two rows. The second contacting fingers are connected to the cable. Wherein said PCB is longer than said fixed element so as to expose first contacting fingers at a front side of the fixed element along the first direction and form a mating port for a mating connector.

Abstract: An address-free driving device and lighting fixture system are disclosed. The device is applied in controlling a lighting device, and includes a serial interface, a signal converter, a signal processor and a lighting driving unit. The signal converter converts an inputted signal from the serial interface into a digital signal. The signal processor then extracts a controlling data corresponding to the address-free driving device from the digital signal, and determines whether or not the inputted signal from the serial interface can be outputted to another address-free driving device. The lighting driving unit drives the lighting device to illuminate light based on the controlling data. Accordingly, when the lighting devices are electrically and serially connected, the address-free driving device then controls the lighting devices based on the order of series connection.

Abstract: A printed dipole antenna used in an electronic device comprising a PCB comprising some through holes; a grounding element locating on one side of the PCB; a radiating element locating on common side of the PCB with the grounding element; a coaxial cable comprising a inner conductor connecting to the radiating element and a braiding layer connecting to the grounding element; and a short circuit element locating on another side of the PCB electrically connecting the radiating element and the grounding element by said through holes. When the printed dipole antenna encounter an intense electromagnetic field, the interferential signal transmitting from the intense electromagnetic field would arrive to the grounding element through the radiating element. The interferential signal cannot arrive to the system and is unable disturb the working of the printed dipole antenna.

Abstract: An address-free driving device and lighting fixture system are disclosed. The device is applied in controlling a lighting device, and includes a serial interface, a signal converter, a signal processor and a lighting driving unit. The signal converter converts an inputted signal from the serial interface into a digital signal. The signal processor then extracts a controlling data corresponding to the address-free driving device from the digital signal, and determines whether or not the inputted signal from the serial interface can be outputted to another address-free driving device. The lighting driving unit drives the lighting device to illuminate light based on the controlling data. Accordingly, when the lighting devices are electrically and serially connected, the address-free driving device then controls the lighting devices based on the order of series connection.

Abstract: A printed dipole antenna used in an electronic device comprising a PCB comprising some through holes; a grounding element locating on one side of the PCB; a radiating element locating on common side of the PCB with the grounding element; a coaxial cable comprising a inner conductor connecting to the radiating element and a braiding layer connecting to the grounding element; and a short circuit element locating on another side of the PCB electrically connecting the radiating element and the grounding element by said through holes. When the printed dipole antenna encounter an intense electromagnetic field, the interferential signal transmitting from the intense electromagnetic field would arrive to the grounding element through the radiating element. The interferential signal cannot arrive to the system and is unable disturb the working of the printed dipole antenna.

Abstract: An electrical connector assembly in accordance with the present invention includes a first dielectric housing (20), a second dielectric housing (10), a number of terminals (26) and a cable (40) electrically connected with the terminals. The first dielectric housing includes a body (21) and a first retention structure (28) formed at opposite ends of the body. The body defines a plurality of passageways (210). The second dielectric housing includes a base (14) and a second retention structure (12) formed at opposite ends of the base. The second retention structure is engageable with the first retention structure at different angles so that the cable extends along different directions with respect to a mating direction of the electrical connector assembly. The terminals are received in corresponding passageways.

Abstract: An electrical connector assembly (100) includes a first insulative housing (20), a second insulative housing (10), a plurality of terminals (26) and a pull tab (30). The first insulative housing comprises a pair of first ends, the first ends includes a first retention structure (28) and a pair of positioning holes (224), respectively. The second insulative housing comprises a pair of second ends, the second ends comprises a second retention structure (12) engagable with the first retention structure at different angle and a pair of holes (122), respectively, the hole and the positioning align with each other. The pull tab comprises a main body (32) and a pair of positioning parts (34) extending from the main body (32), the positioning part extends through the positioning holes and the holes.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a number of wires (30), a shell (40, 50), a bridge portion (615), and a pull tab (62). The insulative housing includes a number of passageways (11). The contacts are received in the passageways of the insulative housing. The wires are electrically connected with the contacts. The shell is assembled to the insulative housing. The bridge portion projects outside the shell. The pull tab is fixed to the bridge portion.

Abstract: A cable end connector assembly (100) includes a cable end connector (2) having a metallic outer shell (21) shielding an outer surface thereof and a protector (1) having a receiving cavity (101) enclosing the metallic outer shell of the cable end connector.

Abstract: A cable connector assembly (100) includes a cable connector (1), a grounding bar (2), a number of wires (3) terminated by the connector, and a piece of conductive tape (4). The cable connector has an insulative housing (10), a terminal insert (12) retaining therein a number of terminals (122), and a metallic shell (14) covering the housing. The terminals include a number of signal terminals (122a) conductively connecting with the wires, a number of ground terminals (122b) arranged between the signal terminals, and a number of power terminals (122c) located beside the signal and ground terminals. The grounding bar has a main plate (20) positioned outside the housing and a number of ground fingers (22) extending from an edge of the main plate and electrically connecting with corresponding ground terminals. The conductive tape substantially wraps about the grounding bar and electrically connects with the metallic shell.

Abstract: An electrical connector assembly in accordance with the present invention includes a first dielectric housing (20), a second dielectric housing (10), a number of terminals (26) and a cable (40) electrically connected with the terminals. The first dielectric housing includes a body (21) and a first retention structure (28) formed at opposite ends of the body. The body defines a plurality of passageways (210). The second dielectric housing includes a base (14) and a second retention structure (12) formed at opposite ends of the base. The second retention structure is engageable with the first retention structure at different angles so that the cable extends along different directions with respect to a mating direction of the electrical connector assembly. The terminals are received in corresponding passageways.

Abstract: An electrical connector assembly (100) includes a first insulative housing (20), a second insulative housing (10), a plurality of terminals (26) and a pull tab (30). The first insulative housing comprises a pair of first ends, the first ends includes a first retention structure (28) and a pair of positioning holes (224), respectively. The second insulative housing comprises a pair of second ends, the second ends comprises a second retention structure (12) engagable with the first retention structure at different angle and a pair of holes (122), respectively, the hole and the positioning align with each other. The pull tab comprises a main body (32) and a pair of positioning parts (34) extending from the main body (32), the positioning part extends through the positioning holes and the holes.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a number of wires (30), a shell (40, 50), a bridge portion (615), and a pull tab (62). The insulative housing includes a number of passageways (11). The contacts are received in the passageways of the insulative housing. The wires are electrically connected with the contacts. The shell is assembled to the insulative housing. The bridge portion projects outside the shell. The pull tab is fixed to the bridge portion.

Abstract: A grounding means (1) used in a cable assembly (100) includes a metallic shell (2), a conductive fabric tape (3) attached onto the metallic shell, and a lock member (4) encased in the metallic shell for securing the conductive fabric tape with the shell. The metallic shell defines a receiving space (24) receiving the lock member and has an inner surface (201) and an opposite outer surface (202). The conductive fabric tape covers the inner and outer surfaces of the metallic shell and extends beyond a forward end (23) of the metallic shell a predetermined length L. The lock member has a pair of ears (42) formed on opposite lateral sides thereof for engaging with corresponding cutouts (220) of the metallic shell. A number of embossments (46) are formed on the lock member for abutting against the fabric tape.