Abstract: An optical connector (100) defining a receiving space (101) includes an insulative housing (1), a plurality of contacts (2) and an optical fiber module (3) retained in the insulative housing (1). The insulative housing (1) has a base (12) and a tongue (13) extending forwardly from the base (12). The base (12) has a front wall (121) and a cavity (125) extending therethrough. The optical fiber module (3) is received in the cavity (125) and has at least a position post (32) extending forwardly beyond the front wall (121). A protecting mechanism (126) extends into the receiving space (101). The protecting mechanism (126) has a front end (1260) arranged at front of the position post (32) to make the receiving space (101) having a first insertion length (X) and a second insertion length (Y). The second insertion length (Y) is larger than the first insertion length (X).

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.

Abstract: An optical receptacle (100) includes an insulative housing (1), a pair of power contacts (2) and an optical fiber component (3) retained in the insulative housing (1). The insulative housing (1) have a body portion (11), a tongue portion (12) extending forwardly from the body portion (11), a pair of passageways (123) extending through insulative housing (1), and a receiving cavity (114) below the passageways (123). The body portion (11) has a pair of opposed front face (110) and rear face (111), and a pair of opposed upper face (112) and lower face (113). Each power contacts (2) has a contacting portion (21), a soldering portion (23) and a retaining portion (22) connecting with the contacting portion (21) and the soldering portion (23. The optical fiber component (3) is retained in the receiving cavity (114) and being exposed to exterior through the front face (110).

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.

Abstract: A connector assembly includes a main substrate (20) disposed in a substantially vertical orientation within a connector housing (10). Four conductor-holding halves (301, 303, 401, 403), laterally and longitudinally aligned with each other, are mounted onto opposite front and rear faces of the main substrate for forming a complete upper connector, and a complete lower connector. This arrangement of the upper and lower ports shares a common main substrate, and is optimal from space usage due to having full advantage of opposed face areas defined by the main substrate.

Abstract: A connector assembly includes a main substrate (20) disposed in a substantially vertical orientation within a connector housing (10). Four conductor-holding halves (301, 303, 401, 403), laterally and longitudinally aligned with each other, are mounted onto opposite front and rear faces of the main substrate for forming a complete upper connector, and a complete lower connector. This arrangement of the upper and lower ports shares a common main substrate, and is optimal from space usage due to having full advantage of opposed face areas defined by the main substrate.

Abstract: A connector assembly (100) adapted for being mounted to a circuit board, includes a jack member, a contact module (5) defining a number of recesses (54), a substrate (6), a number of LEDs (40) disposed on the substrate and inserted into the recesses of the contact module, and an upper conduit module (41) engaged with the jack member and inserted into a corresponding recess of the contact module and aligned with a corresponding LED for transmitting light produced from the LED.

Abstract: An integrated electronic assembly including a first electronic component defining a receptacle and at least a second electronic component wherein at least a portion of the second electronic component is disposed in the receptacle of the first electronic component, and a method for conserving space in a circuit or on a printed circuit board by integrating a plurality of electronic components so that the plurality of electronic components collectively take up a smaller amount of space on a substrate than the plurality of electronic components would if the plurality of electronic components were not integrated.

Abstract: A component having a core, a first multi-wire bundle having primary and secondary windings wound about the core and a second multi-wire bundle having primary and secondary windings wound about the same core. In one form, the first and second bundles are wound in parallel with one another in a bifilar manner about the core. The method of winding the component allows the component to handle high current, high frequency data applications. An isolation transformer and filter circuit are also shown using the transformer and/or method of winding same.