Abstract:
An cable assembly (100) includes an insulative housing (1); a plurality of terminals (212, 222) received in the insulative housing; a plurality of lenses (81); a photoelectric conversion device (93); and a cable (6) including first fibers (63) and second fibers (65), the first fibers connected to photoelectric conversion device which further connected to the terminals, the second fibers connected to the lenses, respectively.
Abstract:
A cable connector assembly (100) comprises an insulative housing (1), a plurality of contacts (2), a metallic shell (3) enclosing the insulative housing and a spacer (5). The insulative housing includes a first tongue (121) and a second tongue (122). The contacts comprise a plurality of first contacts held in the first tongue and a plurality of second contacts held in the second tongue. At least one of the contacts comprises a main body (2210), a pair of horizontal soldering portions (2212) and a pair of connecting portions (2214) the cable has a group transmitting high speed signal, and the group of cable defines two grounding wires (623) connected with the corresponding soldering portion.
Abstract:
A cable assembly includes a plurality of contacts, an insulation housing and a metal shell assembled on the insulation housing. The insulation housing is molded outside the contacts and includes a fastening portion protruding from a rear end of an upper surface of the housing, and a pair of side arms rearward extending from the two sides of a rear surface of the fastening portion. The metal shell is assembled on the insulation housing and located behind the fastening portion. The fastening portion is substantially of U-shaped configuration with a pair of L-shaped cutout located on the two sides thereof and the two cutouts faces toward the outside. The metal shell includes a pair of clasping portions respectively frontward extending from the front surface of two side walls of the rectangular frame. The clasping portions are respectively inserted into their corresponding cutouts.
Abstract:
An cable assembly includes an external cover; two printed circuit boards accommodated in the external cover; a cable including a plurality of wires, a metallic braiding enclosing the wires and an insulative jacket enclosing the metallic braiding, an axial slit defined in the metallic braiding and the insulative jacket of a front segment of the cable for exposing the corresponding wires outside, the corresponding wires separated into two groups of wires respectively soldered to the two printed circuit boards; an outer shielding layer enclosing the axial slit; and a shrinkable tube mounted to the outer shielding layer.
Abstract:
An cable assembly includes an external cover having a back wall defining a retaining cavity; at least one printed circuit board accommodated in the external cover; two cables arranged in juxtaposed manner, each cable including a number of wires, a shielding layer shrouding the wires, a metallic braiding enclosing the shielding layer and an insulative jacket enclosing the metallic braiding; two ring shaped reinforcement members, each reinforcement member located between the shielding layer and the metallic braiding of a front segment of the each cable; and a ferrule crimped to the front segments of the two cable and encircling the reinforcement members, the ferrule retained in the retaining cavity, and the metallic braiding of each cable sandwiched between the ferrule and the reinforcement member inside the corresponding cable.
Abstract:
Described herein is an apparatus and method for providing an inerting gas during the application of soldering to a work piece. In one aspect, there is provided an apparatus that is placed atop of a solder reservoir and comprises a plurality of porous tubes that are in fluid communication with an inerting gas. In another aspect, there is provided a method for providing an inerting gas to a wave soldering apparatus comprising the steps of, among other things, placing an apparatus atop at least one edge of the solder reservoir wherein the apparatus comprises a plurality of tubes comprising one or more openings in fluid communication with an inerting gas source. In a further aspect, at least one of the tubes comprises a non-stick coating or is comprised of a porous non-stick material such as a sleeve.
Abstract:
An electrical connector assembly (100) comprises: a housing (1) comprising a first shield part (15), a second shield part (16) assembled with each other; at least one printed circuit board (2) disposed in the housing; a strain relief (5) disposed in the housing and sandwiched by the first shield part and the second shield part; a metallic shell (8) engaged with the housing; a pair of first screws (91) assembled to the housing along two opposite directions and interlocked with first shield part, the second shield part and the strain relief; and a pair of second screws (92) assembled to the housing along a same direction and interlocked the first shield part, the second shield part, the strain relief and the metallic shell.
Abstract:
An cable assembly includes an insulative housing; a plurality of terminals received in the insulative housing; a cable having a plurality of wires connected to the terminals; and a metallic shell enclosing the insulative housing and the terminals, the metallic shell includes a first shell, a second shell and a third shell, the first shell enclosing the second shell, and the third shell arranged between the first shell and the second shell.
Abstract:
An electrical connector (100) includes an insulative housing (1) having a base (11) and a tongue plate (12) protruding beyond the base (11); a set of contacts (2) having contacting portions (26) arranged in one row along one side of the tongue plate (12), the contacts (2) consisting of a first type of grounding contacts (G) and a second type of a set of pairs of differential contacts (24, 23, 22, 21), the differential contacts comprising a first pair of differential contacts (24) for bi-directionally transmitting data and a second pair of differential contacts (23) for unidirectionally transmitting data, in the contacting portions (26), the grounding contacts having at least two grounding contacts (G1, G2) arranged between the first pair of differential contacts (24) and the second pair of differential contacts (23); and a metal shell (3) covering the insulative housing (1) and having a receiving space (30) for the tongue plate (12) extending into.
Abstract:
Described herein is an apparatus and method for providing an inerting gas during the application of soldering to a work piece. In one aspect, there is provided an apparatus that is placed atop of a solder reservoir and comprises a plurality of porous tubes that are in fluid communication with an inerting gas. In another aspect, there is provided a method for providing an inerting gas to a wave soldering apparatus comprising the steps of, among other things, placing an apparatus atop at least one edge of the solder reservoir wherein the apparatus comprises a plurality of tubes comprising one or more openings in fluid communication with an inerting gas source. In a further aspect, at least one of the tubes comprises a non-stick coating or is comprised of a porous non-stick material such as a sleeve.