Abstract: An electrical connector includes an insulative housing, a number of conductive contacts affixed to the insulative housing, a middle shielding plate affixed to the insulative housing, a shielding shell enclosing the insulative housing for forming a mating room; and an outer metal shell enclosing the shielding shell. The insulative housing has a base portion and a tongue portion extending forwardly from the base portion. The electrical connector further includes a sealer with an o-ring at a front end thereof. The sealer is insert-molded with the shielding shell for forming a waterproof structure enclosing the insulative housing. A front end of the outer metal shell resists the sealer. The outer metal shell encloses the sealer, making the sealer attach to shielding shell firmly. The sealer achieves a good waterproof effect.

Abstract: An electrical connector includes: an insulative housing having a tongue portion, the tongue portion defining two opposite surfaces, each surface of the tongue portion including twelve terminal positions; and two rows of terminals being reversely-symmetrically arranged at the two surfaces of the tongue portion, each terminal having a contact portion exposed on the tongue portion, each row of terminals comprising two grounding terminals respectively arranged at the first and the twelfth terminal positions of the twelve terminal positions, and two power terminals respectively arranged at the fourth and the ninth terminal positions of the twelve terminal positions, the second, third, tenth and eleventh terminal positions of the twelve terminal positions being defined as vacant spaces, one or more further power terminals being arranged at the vacant spaces.

Abstract: An electrical connector for mounting on a printed circuit board includes an insulative housing having an upper contact module and a lower contact module. A row of upper contacts are retained in the upper contact module and a row of lower contacts are retained in the lower contact module. The row of upper contacts and the row of lower contacts includes plural conductive contacts and a pair of grounding contacts located at opposite sides of the conductive contacts. Each conductive contact is covered by matching surfaces of the upper contact module and the lower contact module, and each grounding contact is exposed on the matching surfaces of the upper contact module and the lower contact module. A shielding plate contacts the pair of grounding contacts in an up-to-down direction.

Abstract: An electrical connector includes an insulative housing, a number of terminals disposed in the insulative housing, a metallic shielding plate, a shielding shell defining a mating cavity, and a metal shell. The insulative housing defines a base portion and a tongue portion extending forwardly from the base portion. The base portion includes a front side, a rear side opposite to the front side, at least one retaining slot located in the front side of the base portion. The shielding shell includes at least one front stopping portion protruding into the mating cavity and received in the retaining slot, the at least one front stopping portion includes a front surface located beyond the front side of the base portion to prevent damage the base portion when a mating connector inserting into the electrical connector.

Abstract: An electrical connector includes an insulative housing, a number of terminals, and a metal shell attached to the housing. The terminals have a number of grounding contacts, power contacts, and signal contacts. Each terminal has a contacting portion, an inclined portion bent forwardly from the contacting portion at a bending point, and a soldering portion. The bending points have a first bending point located at the grounding contacts, a second bending point located at the power contacts, and a third bending point located at the signal contact. A distance between the first bending points of the grounding contacts and the insertion port is larger than that between the second bending points of the power contacts and the insertion port and smaller than that between the third bending points of the signal contacts and the insertion port.

Abstract: An electrical connector, defining an insertion port, a mating direction, a transverse direction perpendicular to the mating direction, and a vertical direction perpendicular to the mating direction and the transverse direction, includes an insulative housing, a number of terminals retained in the insulative housing, and a metal shell attached to the insulative housing. Each terminal has a soldering portion. The terminals have a number of grounding contacts, power contacts, and signal contacts. A maximum width of the power contact and the grounding contact is larger than that of the signal contact along the transverse direction.

Abstract: An electrical connector includes: an insulative housing having a rear base portion and a front tongue portion, said tongue portion being formed with a platform connected with the base portion; a number of terminals arranged at the tongue portion, each terminal comprising a conductive portion formed with a contacting portion for contacting with a mating connector, and a soldering portion extending outwardly of the insulative housing; at least one waterproof film extending rearwardly up to the platform; and a shielding shell enclosing the insulative housing; wherein the conductive portions of the terminals are exposed on the tongue portion to form at least one conductive region on the tongue portion covered by the at least one waterproof film.

Abstract: An electrical connector having a metallic base insert-molded with an insulative base to initially form a basic unit and successively with an internal PCB inserted in a frame structure of the metallic base to form an intermediate assembly with the reinforced mating portion thereof. An insulator is applied upon a front region of the intermediate assembly to secure the internal PCB and the basic unit together and commonly form a sub-assembly. A die-casting metallic shield encloses the sub-assembly and secured to the metallic base to commonly form the final receptacle connector.

Abstract: An electrical connector includes an insulative housing, a number of terminals disposed in the insulative housing, a metallic shielding plate, a shielding shell defining a mating cavity, and a metal shell. The insulative housing defines a base portion and a tongue portion extending forwardly from the base portion. The base portion includes a front side, a rear side opposite to the front side, at least one retaining slot located in the front side of the base portion. The shielding shell includes at least one front stopping portion protruding into the mating cavity and received in the retaining slot, the at least one front stopping portion includes a front surface located beyond the front side of the base portion to prevent damage the base portion when a mating connector inserting into the electrical connector.

Abstract: An electrical connector includes: an insulative housing having a rear base portion and a front tongue portion, said tongue portion being formed with a platform connected with the base portion; a number of terminals arranged at the tongue portion, each terminal comprising a conductive portion formed with a contacting portion for contacting with a mating connector, and a soldering portion extending outwardly of the insulative housing; at least one waterproof film extending rearwardly up to the platform; and a shielding shell enclosing the insulative housing; wherein the conductive portions of the terminals are exposed on the tongue portion to form at least one conductive region on the tongue portion covered by the at least one waterproof film.

Abstract: An electrical connector, defining an insertion port, a mating direction, a transverse direction perpendicular to the mating direction, and a vertical direction perpendicular to the mating direction and the transverse direction, includes an insulative housing, a number of terminals retained in the insulative housing, and a metal shell attached to the insulative housing. Each terminal has a soldering portion. The terminals have a number of grounding contacts, power contacts, and signal contacts.

Abstract: An electrical connector includes an insulative housing, a number of terminals, and a metal shell attached to the housing. The terminals have a number of grounding contacts, power contacts, and signal contacts. Each terminal has a contacting portion, an inclined portion bent forwardly from the contacting portion at a bending point, and a soldering portion. The bending points have a first bending point located at the grounding contacts, a second bending point located at the power contacts, and a third bending point located at the signal contact. A distance between the first bending points of the grounding contacts and the insertion port is larger than that between the second bending points of the power contacts and the insertion port and smaller than that between the third bending points of the signal contacts and the insertion port.

Abstract: An electrical connector includes an insulative housing, a number of terminals carried by the insulative housing, a metallic shielding plate retained in the insulative housing, and a shielding shell attached to the insulative housing. The insulative housing has a number of receiving slots located at a back-end thereof. The terminals have a number of soldering portions exposed from the insulative housing. Each receiving slot is located between every two neighboring soldering portions to receive soldering material.

Abstract: An electrical connector comprising an insulative body, a plurality of terminals secured in said insulative body, and a grounding shell. Wherein said grounding shell is composed of two U-shaped collar shells oppositely assembled onto said insulative body. The connector also includes an insulator injected upon said grounding shell and a metallic shell assembled upon said insulator. Each collar shell includes a spring arm extending beyond said insulator and abutting against said metallic shell.

Abstract: Freezing applications is disclosed including receiving a request for an application installed on a computer system, and in response to the request, setting a status of the application to a status value indicating that the application is to become unavailable while maintaining the application and its associated data on the computer system where the application cannot be invoked or run by an operating system after the status is set to the status value.

Abstract: The signal processing apparatus contains a first signal transforming circuit and a second signal transforming circuit. The first signal transforming circuit includes four first coupled lines and two second coupled lines, wherein two ends of each first coupled line are configured to carry a first pair of differential signals respectively, each second coupled line is magnetically coupled to two of the first coupled lines in parallel and comprises two signal ports, to which the two ends of each of the magnetically-coupled first coupled lines are placed symmetrically for transferring a second pair of differential signals. The second signal transforming circuit is configured to convert between the second pairs of differential signals at the signal ports and a third pair of differential signals at connecting ports of the second signal transforming circuit.

Abstract: An automated system and method for determining flip chip connections involves generating a first projection that includes representations of bumps arranged over a core of the flip chip and generating a second projection that includes representations of I/O pads arranged around the core. The first projection is generated by drawing a line through each bump between a location of the flip chip and an outer portion of the flip chip and marking a location where the line terminates at the outer portion with a representation of the bump. The outer portion of the flip chip is traversed, and the first projection is generated based on the order in which bump representations are encountered. The second projection is generated by drawing a line through each I/O pad between a location of the flip chip and an outer portion of the flip chip and marking a location where the line terminates at the outer portion with a representation of the I/O pad.

Abstract: The signal processing apparatus contains a first signal transforming circuit and a second signal transforming circuit. The first signal transforming circuit includes four first coupled lines and two second coupled lines, wherein two ends of each first coupled line are configured to carry a first pair of differential signals respectively, each second coupled line is magnetically coupled to two of the first coupled lines in parallel and comprises two signal ports, to which the two ends of each of the magnetically-coupled first coupled lines are placed symmetrically for transferring a second pair of differential signals. The second signal transforming circuit is configured to convert between the second pairs of differential signals at the signal ports and a third pair of differential signals at connecting ports of the second signal transforming circuit.

Abstract: An automated system and method for determining flip chip connections involves generating a first projection that includes representations of bumps arranged over a core of the flip chip and generating a second projection that includes representations of I/O pads arranged around the core. The first projection is generated by drawing a line through each bump between a location of the flip chip and an outer portion of the flip chip and marking a location where the line terminates at the outer portion with a representation of the bump. The outer portion of the flip chip is traversed, and the first projection is generated based on the order in which bump representations are encountered. The second projection is generated by drawing a line through each I/O pad between a location of the flip chip and an outer portion of the flip chip and marking a location where the line terminates at the outer portion with a representation of the I/O pad.

Abstract: A positioning pin (40) is provided. The positioning pin includes a positioning shaft (42) and a flange (41). The flange is formed on one end of the positioning shaft. The positioning portion is formed on the other end of the positioning shaft.