Abstract:
An electrical connector includes a plug connector, a receptacle connector and a locking element. The plug connector includes an insulating housing, a plurality of terminals mounted into the insulating housing, a shell wrapping the insulating housing. The locking element fixed on the plug connector has a top plate, two opposite sides of the top plate are extended downwards to form a pair of locking plates. A front side of the locking element is extended perpendicularly and outwardly to form at least one connecting arm. A top side of the connecting arm is extended frontward to form a locking arm. The locking arm has a front end extended perpendicularly to form a locking end. When the plug connector is inserted into the receptacle connector, the locking element hooks locking potions provided by the receptacle connector to ensure the connection stability between the plug connector and the receptacle connector.
Abstract:
An electrical connector includes an insulating housing, a shielding shell and a plurality of terminals received in the insulating housing. The insulating housing has a protrusion, a middle of the protrusion protrudes frontward to form an inserting portion, and defines a plurality of first grooves adjacent to the protrusion and a plurality of second grooves connected with the corresponding first grooves. The shielding shell includes a first shielding shell and a second shielding shell, the first shielding shell has a plurality of arms, the second shielding shell defines an opening at a middle thereof, a plurality of splinters bent inward from fringes of the opening, the first shielding shell surrounds the protrusion and the inserting portion with the arms inserted in the corresponding first grooves, the second shielding shell surrounds the insulating housing, the splinters are inserted in the corresponding second grooves and abut against the corresponding arms.
Abstract:
An audio jack connector has an insulating housing having a passageway. A contacting terminal disposed on a side of the passageway has a holding portion and two contacting pieces slanted toward the same side separatively from two opposite ends of the holding portion. A first fixing terminal arranged on a side of the passageway, adjacent to the contacting terminal, has a first fixing slice. The first fixing slice has a side extended obliquely to form a first contacting piece connecting with one contacting piece. A second fixing terminal placed on an opposite side of the passageway has a second fixing slice, a second contacting piece obliquely connected with the second fixing slice for connecting with the other contacting piece. The contacting pieces are forced to slide on and depart from the first contacting piece and the second contacting piece when the contacting terminal is elastically pushed by the inserted plug.
Abstract:
A plug connector connected with a cable has a base and an insertion portion at a front of the base. A terminal is fixed to the base, having a soldering slice connecting with the cable. A first shell is coupled with the insertion portion. A second shell coupled with the base has a lip plate covering a top surface of the base. An edge of the lip plate is extended to form a lateral plate at a front thereof, attached to a side of the base, and a connecting arm at a rear thereof and extending apart from the lateral plate. An opposite edge of the lip plate is extended to form a parcel plate bent around the base to connect the lateral plate. The parcel plate has a support arm extending beneath the connecting arm to form a passageway for allowing the cable to pass therethrough.
Abstract:
A terminal assembly includes a contact terminal having a base board, a driven terminal having a retention portion and an insulating block. Two opposite ends of the base board form a pair of contact portions located at one side of the base board for contacting a corresponding external terminal group. A portion of an edge of the retention portion extends to form an elastic arm. The insulating block is integrated with the contact terminal and the driven terminal by means of a substantial middle portion of the base board and a free end of the elastic arm being integrated in the insulating block. The base board of the contact terminal and the elastic arm of the driven terminal are intersected with and non-contacting with each other.
Abstract:
An electrical connector has an insulating housing defining a front wall. The front wall has a mating portion defining a plurality of passageways extending frontward and rearward in a top surface and a bottom surface respectively. A first terminal module has a plurality of first conductive terminals and a first base for restraining the first conductive terminals. The first conductive terminals have contacting portions extended outside the first base and arranged side by side to form one row for being received in the passageways defined in the top surface. A second terminal module disposed under the first terminal module has a plurality of second conductive terminals and a second base for restraining the second conductive terminals. The second conductive terminals have contacting portions extended outside the second base and arranged side by side to form one row for being received in the passageways defined in the bottom surface.
Abstract:
A method for monitoring a manufacturing process features acquiring metrology data for semiconductor wafers at the conclusion of a final process step for the manufacturing process (“Step a”). Data is acquired for a plurality of process variables for a first process step for manufacturing semiconductor wafers (“Step b”). A first mathematical model of the first process step is created based on the metrology data and the acquired data for the plurality of process variables for the first process step (“Step c”). Steps b and c are repeated for at least a second process step for manufacturing the semiconductor wafers (“Step d”). An nth mathematical model is created based on the metrology data and the data for the plurality of process variables for each of the n process steps (“Step e”). A top level mathematical model is created based on the metrology data and the models created by steps c, d and e (“Step f”). The top level mathematical model of Step f is based on those process variables that have a substantial effect on the metrology data.
Abstract:
An audio jack connector connected with a printed circuit board includes a dielectric housing, a connecting terminal, at least one grounding terminal and a shell. The dielectric housing defines a passageway therethrough. The connecting terminal is received in the passageway of the dielectric housing. The grounding terminal is fixed on the dielectric housing. The grounding terminal has a contact portion exposed outside the dielectric housing and a connecting portion for being connected with the printed circuit board. The shell encloses the dielectric housing and detachably contacts the contact portion of the grounding terminal. As the grounding terminal is separated with the shell, the grounding terminal and the shell can be made independently, which can not only save materials but also reduce the reject rate of the audio jack connector.