Granted Patent B2

US 7,364,470 · App. 11/428,600 · Granted Apr 29, 2008

Abstract

Claims (85)

1. A communications connector, comprising:

a first contact having a first section and a second section that are separated by a contact region;

a first output terminal that is electrically connected to the contact region of the first contact by a first conductive path;

a second contact having a first section and a second section that are separated by a contact region;

a second output terminal that is electrically connected to the contact region of the second contact by a second conductive path;

wherein the first conductive path includes a first segment that extends from the contact region of the first contact through at least a portion of the first section of the first contact and a second segment that extends from the contact region of the first contact through at least a portion of the second section of the first contact.

2. The communications connector of claim 1 , wherein the first and second segments of the first conductive path intersect at the contact region of the first contact and at a first end of a third segment of the first conductive path that connects the first and second segments of the first conductive path to the first output terminal.

3. The communications connector of claim 1 , wherein an end portion of the first section of the first contact is mounted in a wiring board and wherein the second segment of the first conductive path includes a contact pad on the wiring board that mates with a portion of the second section of the first contact when a mating connector is inserted into the communications connector.

4. The communications connector of claim 3 , wherein the second segment of the first conductive path further includes a first conductive trace on the wiring board that is electrically connected to the contact pad.

5. The communications connector of claim 4 , wherein the first conductive path further includes a second conductive trace on the wiring board that comprises at least part of an electrical path between the first section of the first contact and the first output terminal.

6. The communications connector of claim 5 , wherein the first conductive trace intersects the electrical path between the first section of the first contact and the first output terminal.

7. The communications connector of claim 3 , further comprising:

a third contact;

a third output terminal that is connected to a contact region of the third contact by a third conductive path;

a fourth contact; and

a fourth output terminal that is connected to a contact region of the fourth contact by a fourth conductive path;

wherein the first contact and the second contact together comprise a first differential pair of contacts, and

wherein the third contact and the fourth contact together comprise a second differential pair of contacts.

8. The communications connector of claim 7 , wherein the contact region of the third contact and the contact region of the fourth contact are sandwiched between the contact region of the first contact and the contact region of the second contact.

9. The communications connector of claim 1 , wherein the second conductive path includes a first segment that extends from the contact region of the second contact through at least a portion of the first section of the second contact and a second segment that extends from the contact region of the second contact through at least a portion of the second section of the second contact.

10. The communications connector of claim 3 , wherein the first and second segments of the first conductive path are sized and configured so that at least 50 percent of a current applied to the contact region of the first contact travels through the second segment of the first conductive path.

11. The communications connector of claim 3 , wherein the first and second segments of the first conductive path are sized and configured so that at least 75 percent of a current applied to the contact region of the first contact travels through the second segment of the first conductive path.

12. The communications connector of claim 4 , wherein the first contact and the second contact together comprise a first differential pair of contacts, the connector further comprising:

a second differential pair of contacts between the first contact and the second contact;

a third differential pair of contacts adjacent the first contact; and

a fourth differential pair of contacts adjacent the second contact, and

wherein the second conductive path includes a first segment that extends from the contact region of the second contact through at least a portion of the first section of the second contact and a second segment that extends from the contact region of the second contact through at least a portion of the second section of the second contact,

wherein the first and second segments of the second conductive path intersect at the contact region of the second contact and at a first end of a third segment of the second conductive path that connects the first and second segments of the second conductive path to the second output terminal,

wherein an end portion of the first section of the second contact is mounted in the wiring board and wherein the second segment of the second conductive path includes a second contact pad on the wiring board that mates with a portion of the second section of the second contact when a mating connector is inserted into the communications connector, and

wherein the second segment of the second conductive path further includes a third conductive trace on the wiring board that is electrically connected to the second contact pad.

13. The communications connector of claim 12 , wherein the first conductive trace and the third conductive trace form a crossover on the wiring board.

14. The communications connector of claim 4 , further comprising:

a second differential pair of contacts between the first contact and the second contact; and

a third differential pair of contacts adjacent the first contact,

wherein the magnetic coupling between the first contact and the third differential pair that results when a first current is applied to the contact region of the first contact is reduced due to having some of the first current flowing in the second segment.

15. The communications connector of claim 1 , wherein the first segment and the second segment together form a conductive loop.

16. The communications connector of claim 15 , wherein when the current on the first segment has an instantaneous current that flows in a clockwise direction on the conductive loop, the current on the second segment has an instantaneous current that flows in a counterclockwise direction.

17. The communications connector of claim 7 , wherein the third and fourth contacts crossover each other.

18. The communications connector of claim 17 , the connector further comprising a third differential pair of contacts, wherein the contact regions of the contacts forming the third differential pair of contacts are sandwiched by the contact region of the third contact and the contact region of the fourth contact.

19. The communications connector of claim 17 , wherein the contact region of the third contact and the contact region of the fourth contact are sandwiched between the contact region of the first contact and the contact region of the second contact.

20. The communications connector of claim 17 , wherein the contact region of the first contact and the contact region of the second contact are sandwiched between the contact region of the third contact and the contact region of the fourth contact.

21. The communications connector or claim 20 , the connector further comprising a third differential pair of contacts, wherein the third differential pair of contacts is adjacent the second differential pair of contacts.

22. The communications connector of claim 1 , further comprising a self inductive section on the first conductive path.

23. A modular jack comprising:

a plurality of contacts, each of the contacts including a fixed portion, a distal end and a contact region that is located between the fixed portion and the distal end;

a plurality of output terminals that are electrically connected to respective ones of the plurality of contacts;

wherein the electrical connection between a first of the plurality of contacts and a first of the plurality of output terminals to which it is electrically connected comprises a first conductive path and a separate second conductive path such that signal energy incident on the first of the plurality of contacts is split into a first component that travels to the first of the plurality of output terminals via the first conductive path and a second component that travels to the first of the plurality of output terminals via the second conductive path.

24. The modular jack of claim 23 , wherein the first conductive path and the second conductive path join together at an intersection point, and wherein a third conductive path electrically connects the intersection point to the first of the plurality of output terminals.

25. The modular jack of claim 24 , wherein the first conductive path extends from the contact region on the first of the plurality of contacts through the fixed portion of the first of the plurality of contacts to the intersection point.

26. The modular jack of claim 25 , wherein the second conductive path extends from the contact region on the first of the plurality of contacts through at least a portion of the first of the plurality of contacts between the contact region and the distal end of the first of the plurality of contacts to the intersection point.

27. The modular jack of claim 26 , wherein the second conductive path further includes a contact pad on a wiring board that makes electrical contact with the first of the plurality of contacts when a mating connector is inserted into the communications connector, and wherein the second conductive path also includes a first conductive trace on the wiring board that electrically connects the contact pad to the intersection point.

28. The modular jack of claim 23 , wherein the first conductive path and the separate second conductive path together form a conductive loop.

29. The modular jack of claim 28 , wherein when the current on the first conductive path has an instantaneous current that flows in a clockwise direction on the conductive loop, the current on the second conductive path has an instantaneous current that flows in a counterclockwise direction.

30. A modular jack, comprising:

a first contact having a fixed end, a free end and a contact region that is configured to make electrical contact with a contact of a mating modular plug;

a first output terminal;

a first conductive path that is configured to carry current flowing from the contact region of the first contact toward the free end of the first contact to the first output terminal; and

a second conductive path that is configured to carry current flowing from the contact region of the first contact toward the fixed end of the first contact to the first output terminal.

31. The modular jack of claim 30 , further comprising:

a wiring board that includes a first contact pad that makes electrical contact with the first contact when the modular plug is inserted into the modular jack and a first conductive trace that connects the first contact pad to the first output terminal,

wherein the first contact pad and the first conductive trace are part of the first conductive path.

32. The modular jack of claim 31 , wherein the second conductive path includes a second conductive trace on the wiring board that connects the fixed end of the first contact to the first output terminal.

33. The modular jack of claim 32 , wherein the first conductive trace includes at least a portion of the second conductive trace.

34. The modular jack of claim 31 , further comprising:

a second contact having a fixed end, a free end and a contact region that is configured to make electrical contact with a second contact of a mating modular plug;

a second output terminal;

a third conductive path that is configured to carry current flowing from the contact region of the second contact towards the free end of the second contact to the second output terminal;

a fourth conductive path that is configured to carry current flowing from the contact region of the second contact towards the fixed end of the second contact to the second output terminal; and

a second contact pad on the wiring board that makes electrical contact with the second contact when the modular plug is inserted into the modular jack and a third conductive trace that connects the second contact pad to the second output terminal,

wherein the second contact pad and the third conductive trace are part of the third conductive path, and

wherein the first and second contacts comprise a first differential pair.

35. The modular jack of claim 34 , further comprising:

a second differential pair of contacts between the first contact and the second contact;

a third differential pair of contacts adjacent the first contact; and

a fourth differential pair of contacts adjacent the second contact, and

wherein the first conductive trace and the third conductive trace cross on the wiring board.

36. The modular jack of claim 30 , wherein the first conductive path and the separate second conductive path together form a conductive loop.

37. The modular jack of claim 30 , further comprising a self inductive section on the second conductive path.

38. A method of conducting a communications signal through a communications connector, the method comprising:

receiving the communications signal at a contact region of a contact of the communications connector;

splitting the received communications signal into a first component and a second component;

conducting the first component through at least a portion of the communications connector on a first conductive path;

conducting the second component through at least a portion of the communications connector on a second conductive path that is different from the first conductive path;

recombining the first component and the second component to form a recombined communications signal; and

outputting the recombined communications signal at an output terminal of the communications connector.

Assignments (18)