Abstract: An EMI testing deviation correction system includes an EMI testing facility. A signal provisioning device in the EMI testing facility includes a power connector coupling coupled to a networking port. A signal generator includes a power connector that is connected to the power connector coupling, and generates and provides signals having first signal characteristics through the power connector. An ISN device is coupled to the first networking port to receive signals that are provided by the signal generator and transmitted through the signal provisioning device. A signal receiver device is coupled to the ISN device and receives signals transmitted through the signal provisioning device and the ISN device. The signals received by the signal receiver device include second signal characteristics, and the difference between the second signal characteristics and the first signal characteristics provides an indication of at least one correction for the EMI testing facility.

Abstract: A computing device includes a rail mount chassis and a processor. The rail mount chassis includes a pressure sensor. The processor monitors the pressure sensor to obtain pressure sensor data; estimates a load exerted on a rail of the rail mount chassis using the obtained pressure sensor data; makes a determination that the load exerted on the rail exceeds a load rating of the rail; and in response to the determination, notifies a user that the rail may be damaged.

Abstract: An EMI testing deviation correction system includes an EMI testing facility. A signal provisioning device in the EMI testing facility includes a power connector coupling coupled to a networking port. A signal generator includes a power connector that is connected to the power connector coupling, and generates and provides signals having first signal characteristics through the power connector. An ISN device is coupled to the first networking port to receive signals that are provided by the signal generator and transmitted through the signal provisioning device. A signal receiver device is coupled to the ISN device and receives signals transmitted through the signal provisioning device and the ISN device. The signals received by the signal receiver device include second signal characteristics, and the difference between the second signal characteristics and the first signal characteristics provides an indication of at least one correction for the EMI testing facility.

Abstract: A plug connector includes a mating tongue defining top and bottom surfaces thereon. Each surface is provided with a plurality of conductors in one row wherein the characters/categories of the conductors on the top surface are sequentially arranged to be same with those on the bottom surface with a pair of power conductors in two notches at two lateral side edges. The corresponding receptacle connector mounted upon a printed circuit board, defines a receiving cavity to receive the mating tongue therein. Opposite top and bottom rows of contacts are respectively located by upper and bottom sides of the receiving cavity and categorized essentially in a same sequence with the conductors of the plug connector for respectively connecting to the corresponding conductive pads, respectively. A pair of power contacts are located by two lateral sides of the receiving cavity to couple to the corresponding power conductor portions in the notches.

Abstract: A plug connector includes a mating tongue defining top and bottom surfaces thereon. Each surface is provided with a plurality of conductors in one row wherein the characters/categories of the conductors on the top surface are sequentially arranged to be same with those on the bottom surface with a pair of power conductors in two notches at two lateral side edges. The corresponding receptacle connector mounted upon a printed circuit board, defines a receiving cavity to receive the mating tongue therein. Opposite top and bottom rows of contacts are respectively located by upper and bottom sides of the receiving cavity and categorized essentially in a same sequence with the conductors of the plug connector for respectively connecting to the corresponding conductive pads, respectively. A pair of power contacts are located by two lateral sides of the receiving cavity to couple to the corresponding power conductor portions in the notches.

Abstract: An electrical connector assembly includes plural wafers and the corresponding shielding plates are alternately stacked with one another. Each wafer includes a conductive housing defining plural slots therein, and plural terminal modules received in the corresponding slots, respectively. Each of the terminal modules includes a pair of differential contacts and an insulative holder retaining the pair of differential contacts. A plurality of cable assemblies correspond to the corresponding wafers. Each cable assemblies includes a plurality of cables each including a pair of differential wires respectively connected to the pair of differential contacts, respectively.

Abstract: A USB cable (100), comprising: a power wire (1) transferring positive power, a pair of signal wires (2), a metallic braided layer (5) enclosing on the power wire and the signal wires, an insulative outer jacket (6) surrounding the metallic braided layer, and three drain wires disposed in the metallic braided layer. The power wire comprises a metallic inner conductor and an insulative layer surrounding the inner conductor, and the insulative layer of the power wire is made of Polypropylene. The three drain wires comprises a pair of first drain wires (31) and a second drain wire (32), and each first drain wire has a larger external dimension than the second drain wire.

Abstract: An opto-electronic device includes an optical engine module and an electrical socket. The optical engine module includes an optical engine, an optical transmission interface for coupling with an optical device and an electrical transmission interface, the electrical transmission interface having electrical pads. The electrical socket includes a plurality of BGA terminals, each terminal having a module-connecting end and a board-connecting end. The electrical transmission interface is removeably assembled in the electrical socket and the electrical pads contact the module-connecting ends of the electrical socket.

Abstract: A plug connector includes a mating tongue defining top and bottom surfaces thereon. Each surface is provided with a plurality of conductors in one row wherein the characters/categories of the conductors on the top surface are sequentially arranged to be same with those on the bottom surface with a pair of power conductors in two notches at two lateral side edges. The corresponding receptacle connector mounted upon a printed circuit board, defines a receiving cavity to receive the mating tongue therein. Opposite top and bottom rows of contacts are respectively located by upper and bottom sides of the receiving cavity and categorized essentially in a same sequence with the conductors of the plug connector for respectively connecting to the corresponding conductive pads, respectively. A pair of power contacts are located by two lateral sides of the receiving cavity to couple to the corresponding power conductor portions in the notches.

Abstract: An opto-electronic device includes an optical engine module and an electrical socket. The optical engine module includes an optical engine, an optical transmission interface for coupling with an optical device and an electrical transmission interface, the electrical transmission interface having electrical pads. The electrical socket includes a plurality of BGA terminals, each terminal having a module-connecting end and a board-connecting end. The electrical transmission interface is removeably assembled in the electrical socket and the electrical pads contact the module-connecting ends of the electrical socket.

Abstract: An opto-electronic device assembly adapted for mounted on a mother board includes a case and opto-electronic devices. The case has multiple cavities opening forwards and downwards. Each opto-electronic device includes an optical engine module and an electrical socket. The optical engine module includes an optical engine, an optical transmission interface and an electrical transmission interface with electrical pads. The electrical socket has a plurality of terminals with one ends contacting with PCB and another opposite ends contacting with the electrical pads. Each electrical transmission interface is removeably assembled in the electrical sockets to complete electrical connection between the substrate and the mother board. The opto-electrical devices are received in the cavities in a condition that the optical transmission interfaces exposes to a front open of the case.

Abstract: An optical-electrical hybrid transmission cable (100), comprises an insulative layer (2); a shielding layer located on an inner side of the insulative layer; an optical cable (5) disposed in the shielding layer and comprising two optical fibers (51) and an insulative sheath (52) enclosing the two optical fibers; a pair of signal wires (6) twisted together and disposed in the shielding layer; and a pair of power wires disposed in the shielding layer. And the optical cable, the pair of signal wires and the pair of power wires are arranged along a circumferential direction.

Abstract: An optical-electrical hybrid transmission cable (100), comprises: an insulative layer (2); a shielding layer (3) located on an inner side of the insulative layer; an optical cable (4) disposed in the shielding layer and comprising two optical fibers (41) and an insulative sheath (42) enclosing the two optical fibers; two coaxial cables (5), a power wire (6) and a grounding wire (7) disposed in the shielding layer; and a filler (8) disposed in a center of the optical-electrical hybrid transmission cable and surrounded by the two coaxial cables, the power wire, the grounding wire and the optical cable which are arranged along a circumferential direction.

Abstract: An optical-electrical hybrid transmission cable (100), comprising: an insulative layer (2); a shielding layer located on an inner side of the insulative layer; a pair of signal wires (6) disposed in the shielding layer and twisted together; a power wire (7) and a grounding wire (8) disposed in the shielding layer and arranged side by side; two bare optical fibers (5) disposed in the shielding layer and spaced apart from each other; and a plurality of fillers (9) disposed in the shielding layer and arranged in a discrete manner.

Abstract: An optical-electrical hybrid transmission cable (100), comprises an insulative layer (2); a shielding layer located on an inner side of the insulative layer; an optical cable (5) disposed in the shielding layer and comprising two optical fibers (51) and an insulative sheath (52) enclosing the two optical fibers; a pair of signal wires (6) twisted together and disposed in the shielding layer; and a pair of power wires disposed in the shielding layer. And the optical cable, the pair of signal wires and the pair of power wires are arranged along a circumferential direction.

Abstract: An optical-electrical hybrid transmission cable (100), comprising: an insulative layer (2); a shielding layer located on an inner side of the insulative layer; a pair of signal wires (6) disposed in the shielding layer and twisted together; a power wire (7) and a grounding wire (8) disposed in the shielding layer and arranged side by side; two bare optical fibers (5) disposed in the shielding layer and spaced apart from each other; and a plurality of fillers (9) disposed in the shielding layer and arranged in a discrete manner.

Abstract: An optical-electrical hybrid transmission cable (100), comprises: an insulative layer (2); a shielding layer (3) located on an inner side of the insulative layer; an optical cable (4) disposed in the shielding layer and comprising two optical fibers (41) and an insulative sheath (42) enclosing the two optical fibers; two coaxial cables (5), a power wire (6) and a grounding wire (7) disposed in the shielding layer; and a filler (8) disposed in a center of the optical-electrical hybrid transmission cable and surrounded by the two coaxial cables, the power wire, the grounding wire and the optical cable which are arranged along a circumferential direction.

Abstract: An opto-electronic device assembly adapted for mounted on a mother board includes a case and opto-electronic devices. The case has multiple cavities opening forwards and downwards. Each opto-electronic device includes an optical engine module and an electrical socket. The optical engine module includes an optical engine, an optical transmission interface and an electrical transmission interface with electrical pads. The electrical socket has a plurality of terminals with one ends contacting with PCB and another opposite ends contacting with the electrical pads. Each electrical transmission interface is removeably assembled in the electrical sockets to complete electrical connection between the substrate and the mother board. The opto-electrical devices are received in the cavities in a condition that the optical transmission interfaces exposes to a front open of the case.

Abstract: A cable assembly (100) includes an insulative housing (2) having a base portion (21) and a tongue portion (22) extending forwardly from the base portion, said tongue portion defining a top side and a bottom side opposite to the top side, at least a mounting cavity (2212) and a slot (2213) defined in a bottom side of the insulated housing, said slot located behind and communicated to the mounting cavity; a plurality of contacts (3) supported by the base portion, each contact having a mating portion arranged proximate to the top side of the tongue portion, and a tail portion supported by the base portion; an optical module (6) floatably accommodated in the mounting cavity and capable of moving in the mounting cavity along a front-to-back direction, said optical module including at least one lens member and a holder member enclosing the lens member; an optical fiber extending through the slot and connected to the optical module; and a metal shell (8) having a mating frame enclosing the tongue portion and the opt

Abstract: A cable assembly (100) includes an insulative housing (2) having a base portion (21) and a tongue portion (22) extending forwardly therefrom, at least a mounting cavity (2212) and a curved slot (2213) defined in a low section of the insulated housing, said curved slot located behind and communicated to the mounting cavity; a plurality of contacts (4) supported by the base portion, each contact having a mating portion arranged proximate to the top side of the tongue portion, and a tail portion extending beyond a back surface of the base portion; an optical module (6) accommodated in the mounting cavity and a spring member (63) arranged between the optical module and a back side of the mounting cavity; an optical fiber (53) extending through the curved slot and connected to the optical module; and a metal shell (8) having a mating frame enclosing the tongue portion and the optical module therein.