Arrangement for energy conditioning

• US 8,587,915 B2
• Filed: 08/01/2011
• Issued: 11/19/2013
• Est. Priority Date: 04/08/1997
• Status: Expired due to Fees

• Current Assignee: X2Y Attenuators, LLC
• Original Assignee: X2Y Attenuators, LLC
• Inventors: Anthony, Anthony A., Anthony, William M.
• Primary Examiner(s): Jackson, Stephen W
• Application Number:
  US13/195,495
• Publication Number:
  US 20120023742A1
• Time in Patent Office: 841 Days
• Field of Search: 361/118
• US Class Current: 361/118
• CPC Class Codes: H01L 23/50 for integrated circuit devices, e.g. power bus, number of leadsH01L23/482 - H01L23/498 take precedence
• CPC Class Codes: H01L 23/552 Protection against radiation, e.g. light or electromagnetic waves
• CPC Class Codes: H01L 2924/00 Indexing scheme for arrangements or methods for connecting or disconnecting semiconductor or solid-state bodies as covered by H01L24/00
• CPC Class Codes: H01L 2924/0002 Not covered by any one of groups H01L24/00, H01L24/00 and H01L2224/00
• CPC Class Codes: H01L 2924/3011 Impedance
• CPC Class Codes: H01L 2924/3025 Electromagnetic shielding
• CPC Class Codes: H05K 9/00 Screening of apparatus or components against electric or magnetic fields devices for absorbing radiation from an antenna H01Q17/00
• CPC Class Codes: H05K 9/0071 Active shielding
• CPC Class Codes: Y10T 29/49117 Conductor or circuit manufacturing
• CPC Class Codes: Y10T 29/49124 On flat or curved insulated base, e.g., printed circuit, etc.
• CPC Class Codes: Y10T 29/49194 Assembling elongated conductors, e.g., splicing, etc.

Abstract

Circuit arrangement embodiments that use relative groupings of energy pathways that include shielding circuit arrangements that can sustain and condition electrically complementary energy confluences.

Claims

1. An arrangement for energy conditioning, comprising:

an upper electrode comprising at least an upper electrode bottom surface area;

a first electrode comprising a first surface area that includes a first, a second, a third and a fourth perimeter edge portion of the first electrode, and wherein a top of the first surface area includes the first and second perimeter edge portions of the first electrode, and wherein the first and second perimeter edge portions of the first electrode are co-planar and spaced apart from one another, and wherein a bottom of the first surface area includes the third and fourth perimeter edge portions of the first electrode, and wherein the third and fourth perimeter edge portions of the first electrode are co-planar and spaced apart from one another by a first horizontal distance;

a third electrode comprising a third surface area that includes a first, a second, a third and a fourth perimeter edge portion of the third electrode, and wherein a top of the third surface area includes the first and second perimeter edge portions of the third electrode, and wherein the first and second perimeter edge portions of the third electrode are co-planar and spaced apart from one another, and wherein a bottom of the third surface area includes the third and fourth perimeter edge portions of the third electrode, and wherein the third and fourth perimeter edge portions of the third electrode are co-planar and spaced apart from one another by the first horizontal distance;

a fifth electrode comprising a fifth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the fifth electrode, and wherein a top of the fifth surface area includes the first and second perimeter edge portions of the fifth electrode, and wherein the first and second perimeter edge portions of the fifth electrode are co-planar and spaced apart from one another, and wherein a bottom of the fifth surface area includes the third and fourth perimeter edge portions of the fifth electrode, and wherein the third and fourth perimeter edge portions of the fifth electrode are co- planar and spaced apart from one another by the first horizontal distance;

a seventh electrode comprising a seventh surface area that includes a first, a second, a third and a fourth perimeter edge portion of the seventh electrode, and wherein a top of the seventh surface area includes the first and second perimeter edge portions of the seventh electrode, and wherein the first and second perimeter edge portions of the seventh electrode are co-planar and spaced apart from one another, and wherein a bottom of the seventh surface area includes the third and fourth perimeter edge portions of the seventh electrode, and wherein the third and fourth perimeter edge portions of the seventh electrode are co-planar and spaced apart from one another by the first horizontal distance;

a center electrode comprising a center electrode top surface area and a center electrode bottom surface area;

a second electrode comprising a second surface area that includes a first, a second, a third and a fourth perimeter edge portion of the second electrode, and wherein a top of the second surface area includes the first and second perimeter edge portions of the second electrode, and wherein the first and second perimeter edge portions of the second electrode are co-planar and spaced apart from one another, and wherein a bottom of the second surface area includes the third and fourth perimeter edge portions of the second electrode, and wherein the third and fourth perimeter edge portions of the second electrode are co-planar and spaced apart from one another by the first horizontal distance;

a fourth electrode comprising a fourth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the fourth electrode, and wherein a top of the fourth surface area includes the first and second perimeter edge portions of the fourth electrode, and wherein the first and second perimeter edge portions of the fourth electrode are co-planar and spaced apart from one another, and wherein a bottom of the fourth surface area includes the third and fourth perimeter edge portions of the fourth electrode, and wherein the third and fourth perimeter edge portions of the fourth electrode are co-planar and spaced apart from one another by the first horizontal distance;

a sixth electrode comprising a sixth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the sixth electrode, and wherein a top of the sixth surface area includes the first and second perimeter edge portions of the sixth electrode, and wherein the first and second perimeter edge portions of the sixth electrode are co-planar and spaced apart from one another, and wherein a bottom of the sixth surface area includes the third and fourth perimeter edge portior of the sixth electrode, and wherein the third and fourth perimeter edge portions of the sixth electrode are co. planar and spaced apart from one another by the first horizontal distance;

an eighth electrode comprising an eighth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the eighth electrode, and wherein a top of the eighth surface area includes the first and second perimeter edge portions of the eighth electrode, and wherein the first and second perimeter edge portions of the eighth electrode are co-planar and spaced apart from one another, and wherein a bottom of the eighth surface area includes the third and fourth perimeter edge portions of the eighth electrode, and wherein the third and fourth perimeter edge portions of the eighth electrode are co-planar and spaced apart from one another by the first horizontal distance;

a lower electrode comprising at least a lower electrode top surface area;

wherein the upper electrode bottom surface area is electrically coupled to the center electrode top surface area, and wherein the center electrode bottom surface area is electrically coupled to the lower electrode top surface area, and wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each electrically isolated from the upper, center and lower electrodes, and wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each electrically isolated from one another;

wherein the third and fourth perimeter edge portions of the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each longer than the first horizontal distance;

wherein the first, third, fifth, and seventh surface areas are located between the upper electrode bottom surface area and the center electrode top surface area, and wherein the second, fourth, sixth, and eighth surface areas are located between the center electrode bottom surface area and the lower electrode top surface area;

wherein the first, third, fifth, and seventh surface areas are shielded from the second, fourth, sixth, and eighth surface areas by the center electrode top surface area and center electrode bottom surface area;

wherein the bottom of the first surface area, the bottom of the third surface area, the bottom of the fifth surface area and the bottom of the seventh surface area are each spaced a first vertical distance away from the center electrode top surface area; and

wherein the top of the second surface area, the top of the fourth surface area, the top of the sixth surface area and the top of the eighth surface area are each spaced the first vertical distance away from the center electrode bottom surface area;

wherein the third perimeter edge portion of the first electrode, the fourth perimeter edge portion of the first electrode, the third perimeter edge portion of the third electrode, the fourth perimeter edge portion of the third electrode, the third perimeter edge portion of the fifth electrode, the fourth perimeter edge portion of the fifth electrode, the third perimeter edge portion of the seventh electrode and the fourth perimeter edge portion of the seventh electrode are all parallel and co-planar with one another;

wherein the third perimeter edge portion of the second electrode, the fourth perimeter edge portion o the second electrode, the third perimeter edge portion of the fourth electrode, the fourth perimeter edge portion of the fourth electrode, the third perimeter edge portion of the sixth electrode, the fourth perimeter edge portion of the sixth electrode, the third perimeter edge portion of the eighth electrode and the fourth perimeter edge portion of the eighth electrode are all parallel and co-planar with one another;

wherein the bottom of the first surface area and the bottom of the second surface area are superposed such that the third perimeter edge portion of the first electrode and the third perimeter edge portion of the second electrode are aligned with one another, and the fourth perimeter edge portion of the first electrode and the fourth perimeter edge portion of the second electrode are aligned with one another;

wherein the bottom of the third surface area and the bottom of the fourth surface area are superposed such that the third perimeter edge portion of the third electrode and the third perimeter edge portion of the fourth electrode are aligned with one another, and the fourth perimeter edge portion of the third electrode and the fourth perimeter edge portion of the fourth electrode are aligned with one another;

wherein the bottom of the fifth surface area and the bottom of the sixth surface area are superposed such that the third perimeter edge portion of the fifth electrode and the third perimeter edge portion of the sixth electrode are aligned with one another, and the fourth perimeter edge portion of the fifth electrode and the fourth perimeter edge portion of the sixth electrode are aligned with one another; and

wherein the bottom of the seventh surface area and the bottom of the eighth surface area are superposed such that the third perimeter edge portion of the seventh electrode and the third perimeter edge portion of the eighth electrode are aligned with one another, and the fourth perimeter edge portion of the seventh electrode and the fourth perimeter edge portion of the eighth electrode are aligned with one another.

2. The arrangement for energy conditioning of claim 1, further comprising:

a substrate comprising a substrate top surface area and a substrate bottom surface area; and

wherein all the perimeter edge portions of the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are located between the substrate top surface area and the substrate bottom surface area.

3. The arrangement for energy conditioning of claim 2, further comprising:

an integrated circuit chip;

wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each electrically coupled to the integrated circuit chip; and

wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each operable to transmit digital information through the substrate.

4. The arrangement for energy conditioning of claim 1, further comprising:

an integrated circuit chip;

a substrate comprising a substrate top surface area and a substrate bottom surface area;

wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each electrically coupled to the integrated circuit chip; and

wherein all the perimeter edge portions of the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are located between the substrate top surface area and the substrate bottom surface area.

5. The arrangement for energy conditioning of claim 4, wherein at least the upper electrode is electrically coupled to the integrated circuit chip.

6. The arrangement for energy conditioning of claim 4, wherein the top of the first surface area, the top of the third surface area, the top of the fifth surface area and the top of the seventh surface area are each spaced the first vertical distance away from the upper electrode bottom surface area;

and

wherein the bottom of the second surface area, the bottom of the fourth surface area, the bottom of the sixth surface area and the bottom of the eighth surface area are each spaced the first vertical distance away from the lower electrode top surface area.

7. The arrangement for energy conditioning of claim 5, wherein the top of the first surface area, the top of the third surface area, the top of the fifth surface area and the top of the seventh surface area are each spaced the first vertical distance away from the upper electrode bottom surface area;

and

wherein the bottom of the second surface area, the bottom of the fourth surface area, the bottom of the sixth surface area and the bottom of the eighth surface area are each spaced the first vertical distance away from the lower electrode top surface area.

8. The arrangement for energy conditioning of claim 6, wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each operable as a feedthrough electrode.

9. The arrangement for energy conditioning of claim 8, wherein the upper, center and lower electrodes are operable together as a common electrical reference when the integrated circuit chip is energized.

10. The arrangement for energy conditioning of claim 6, wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each operable as a digital data transmission line.

11. The arrangement for energy conditioning of claim 7, wherein the first, second, third, fourth, fifth, sixth, seventh and eighth electrodes are each operable as a digital data transmission line when the integrated circuit chip is energized.

12. The arrangement for energy conditioning of claim 9, wherein the arrangement for energy conditioning is operable with a wireless phone.

13. The arrangement for energy conditioning of claim 11, wherein the arrangement for energy conditioning is operable with a wireless phone.

14. An arrangement for energy conditioning, comprising:

an upper conductor comprising at least an upper conductor bottom surface area;

a first conductor comprising a first surface area that includes a first, a second, a third and a fourth perimeter edge portion of the first conductor, and wherein a top of the first surface area includes the first and second perimeter edge portions of the first conductor, and wherein the first and second perimeter edge portions of the first conductor are co-planar and spaced apart from one another, and wherein a bottom of the first surface area includes the third and fourth perimeter edge portions of the first conductor, and wherein the third and fourth perimeter edge portions of the first conductor are co-planar and spaced apart from one another by a first horizontal distance;

a third conductor comprising a third surface area that includes a first, a second, a third and a fourth perimeter edge portion of the third conductor, and wherein a top of the third surface area includes the first and second perimeter edge portions of the third conductor, and wherein the first and second perimeter edge portions of the third conductor are co-planar and spaced apart from one another, and wherein a bottom of the third surface area includes the third and fourth perimeter edge portions of the third conductor, and wherein the third and fourth perimeter edge portions of the third conductor are co- planar and spaced apart from one another by a second horizontal distance;

a fifth conductor comprising a fifth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the fifth conductor, and wherein a top of the fifth surface area includes the first and second perimeter edge portions of the fifth conductor, and wherein the first and second perimeter edge portions of the fifth conductor are co-planar and spaced apart from one another, and wherein a bottom of the fifth surface area includes the third and fourth perimeter edge portions of the fifth conductor, and wherein the third and fourth perimeter edge portions of the fifth conductor are co-planar and spaced apart from one another by a third horizontal distance;

a center conductor comprising a center conductor top surface area and a center conductor bottom surface area;

a second conductor comprising a second surface area that includes a first, a second, a third and a fourth perimeter edge portion of the second conductor, and wherein a top of the second surface area includes the first and second perimeter edge portions of the second conductor, and wherein the first and second perimeter edge portions of the second conductor are co-planar and spaced apart from one another, and wherein a bottom of the second surface area includes the third and fourth perimeter edge portions of the second conductor, and wherein the third and fourth perimeter edge portions of the second conductor are co-planar and spaced apart from one another by the first horizontal distance;

a fourth conductor comprising a fourth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the fourth conductor, and wherein a top of the fourth surface area includes the first and second perimeter edge portions of the fourth conductor, and wherein the first and second perimeter edge portions of the fourth conductor are co-planar and spaced apart from one another, and wherein a bottom of the fourth surface area includes the third and fourth perimeter edge portions of the fourth conductor, and wherein the third and fourth perimeter edge portions of the fourth conductor are co-planar and spaced apart from one another by the second horizontal distance;

a sixth conductor comprising a sixth surface area that includes a first, a second, a third and a fourth perimeter edge portion of the sixth conductor, and wherein a top of the sixth surface area includes the first and second perimeter edge portions of the sixth conductor, and wherein the first and second perimeter edge portions of the sixth conductor are co-planar and spaced apart from one another, and wherein a bottom of the sixth surface area includes the third and fourth perimeter edge portions of the sixth conductor, and wherein the third and fourth perimeter edge portions of the sixth conductor are co-planar and spaced apart from one another by the third horizontal distance;

a lower conductor comprising at least a lower conductor top surface area;

wherein the upper, center and lower conductors are electrically coupled to one another, and wherein the first, second, third, fourth, fifth, and sixth conductors are each electrically isolated from the upper, center and lower conductors, and wherein the first, second, third, fourth, fifth, and sixth conductors are each electrically isolated from one another;

wherein the third and fourth perimeter edge portions of the first and second conductors are each longer than the first horizontal distance, and wherein the third and fourth perimeter edge portions of the third and fourth conductors are each longer than the second horizontal distance, and wherein the third and fourth perimeter edge portions of the fifth and sixth conductors are each longer than the third horizontal distance;

wherein the first, third and fifth surface areas are located between the upper conductor bottom surface area and the center conductor top surface area, and wherein the second, fourth and sixth surface areas are located between the center conductor bottom surface area and the lower conductor top surface area;

wherein the first, third and fifth surface areas are shielded from the second, fourth and sixth surface areas by the center conductor top surface area and the center conductor bottom surface area;

wherein the third perimeter edge portion of the first conductor, the fourth perimeter edge portion of the first conductor, the third perimeter edge portion of the third conductor, the fourth perimeter edge portion of the third conductor, the third perimeter edge portion of the fifth conductor and the fourth perimeter edge portion of the fifth conductor are all parallel and co-planar with one another;

wherein the third perimeter edge portion of the second conductor, the fourth perimeter edge portion of the second conductor, the third perimeter edge portion of the fourth conductor, the fourth perimeter edge portion of the fourth conductor, the third perimeter edge portion of the sixth conductor and the fourth perimeter edge portion of the sixth conductor are all parallel and co-planar with one another;

wherein the bottom of the first surface area and the bottom of the second surface area are superposed with one another

wherein the the bottom of the third surface area and the bottom of the fourth surface area are superposed with one another; and

wherein the bottom of the fifth surface area, and the bottom of the sixth surface area are superposed with one another.

15. The arrangement for energy conditioning of claim 14, wherein the top of the first surface area, the top of the third surface area and the top of the fifth surface area are each spaced a first vertical distance away from the upper conductor bottom surface area;

wherein the bottom of the first surface area, the bottom of the third surface area and the bottom of the fifth surface area are each spaced a second vertical distance away from the center conductor top surface area;

wherein the top of the second surface area, the top of the fourth surface area and the top of the sixth surface area are each spaced a third vertical distance away from the center conductor bottom surface area; and

wherein the bottom of the second surface area, the bottom of the fourth surface area and the bottom of the sixth surface area are each spaced a fourth vertical distance away from the lower conductor top surface area.

16. The arrangement for energy conditioning of claim 15, further comprising:

a substrate including a substrate top surface area and a substrate bottom surface area;

a dielectric material;

wherein the second perimeter edge portion of the first conductor is spaced directly apart from the first perimeter edge portion of the third conductor by the dielectric material, and wherein the second perimeter edge portion of the third conductor is spaced directly apart from the first perimeter edge portion of the fifth conductor by the dielectric material; and

wherein the fourth perimeter edge portion of the first conductor is spaced directly apart from the third perimeter edge portion of the third conductor by the dielectric material, and wherein the fourth perimeter edge portion of the third conductor is spaced directly apart from the third perimeter edge portion of the fifth conductor by the dielectric material; and

wherein the first, second, third, fourth, fifth and sixth surface areas are located between the substrate top surface area and the substrate bottom surface area.

17. The arrangement for energy conditioning of claim 14, further comprising:

an integrated circuit chip;

a substrate comprising a substrate top surface area and a substrate bottom surface area;

a dielectric material;

wherein the top of the first surface area, the top of the third surface area and the top of the fifth surface area are each spaced a first vertical distance away from the upper conductor bottom surface area by the dielectric material;

wherein the bottom of the first surface area, the bottom of the third surface area and the bottom of the fifth surface area are each spaced the first vertical distance away from the center conductor top surface area by the dielectric material;

wherein the top of the second surface area, the top of the fourth surface area and the top of the sixth surface area are each spaced the first vertical distance away from the center conductor bottom surface area by the dielectric material; and

wherein the bottom of the second surface area, the bottom of the fourth surface area and the bottom of the sixth surface area are each spaced the first vertical distance away from the lower conductor top surface area by the dielectric material;

wherein the second perimeter edge portion of the first conductor is spaced directly apart from the first perimeter edge portion of the third conductor by the dielectric material, and wherein the second perimeter edge portion of the third conductor is spaced directly apart from the first perimeter edge portion of the fifth conductor by the dielectric material; and

wherein the fourth perimeter edge portion of the first conductor is spaced directly apart from the third perimeter edge portion of the third conductor by the dielectric material, and wherein the fourth perimeter edge portion of the third conductor is spaced directly apart from the third perimeter edge portion of the fifth conductor by the dielectric material;

wherein the first, second, third, fourth, fifth and sixth surface areas are located between the substrate top surface area and the substrate bottom surface area; and

wherein the first, second, third, fourth, fifth, and sixth conductors are each electrically coupled to the integrated circuit chip.

18. The arrangement for energy conditioning of claim 14, further comprising:

a dielectric material;

wherein the bottom of the first surface area, the bottom of the third surface area and the bottom of the fifth surface area are each spaced a first vertical distance away from the center conductor top surface area by the dielectric material; and

wherein the top of the second surface area, the top of the fourth surface area and the top of the sixth surface area are each spaced the first vertical distance away from the center conductor bottom surface area by the dielectric material.

19. The arrangement for energy conditioning of claim 14, further comprising:

an integrated circuit chip;

a dielectric material;

a substrate comprising a substrate top surface area and a substrate bottom surface area;

wherein the top of the first surface area, the top of the third surface area and the top of the fifth surface area are each spaced a first vertical distance away from the upper conductor bottom surface area by the dielectric material;

wherein the bottom of the first surface area, the bottom of the third surface area and the bottom of the fifth surface area are each spaced a second vertical distance away from the center conductor top surface area by the dielectric material;

wherein the top of the second surface area, the top of the fourth surface area and the top of the sixth surface area are each spaced a third vertical distance away from the center conductor bottom surface area by the dielectric material;

wherein the bottom of the second surface area, the bottom of the fourth surface area and the bottom of the sixth surface area are each spaced a fourth vertical distance away from the lower conductor top surface area by the dielectric material;

wherein the second perimeter edge portion of the first conductor is spaced directly apart from the first perimeter edge portion of the third conductor by the dielectric material, and wherein the second perimeter edge portion of the third conductor is spaced directly apart from the first perimeter edge portion of the fifth conductor by the dielectric material;

wherein the fourth perimeter edge portion of the first conductor is spaced directly apart from the third perimeter edge portion of the third conductor by the dielectric material, and wherein the fourth perimeter edge portion of the third conductor is spaced directly apart from the third perimeter edge portion of the fifth conductor by the dielectric material;

wherein the first, second, third, fourth, fifth, and sixth conductors are each electrically coupled to the integrated circuit chip; and

wherein all the perimeter edge portions of the first, second, third, fourth, fifth, and sixth conductors are located between the substrate top surface area and the substrate bottom surface area.

20. The arrangement for energy conditioning of claim 19, wherein the arrangement for energy conditioning is operable with a wireless phone.

21. The arrangement for energy conditioning of claim 20, wherein the first, second, third, fourth, fifth, and sixth conductors are each operable to transmit digital data when the integrated circuit chip is energized.

22. The arrangement for energy conditioning of claim 18, further comprising:

an integrated circuit chip, and wherein the first, second, third, fourth, fifth, and sixth conductors are each electrically coupled to the integrated circuit chip;

wherein the top of the first surface area, the top of the third surface area and the top of the fifth surface area are each spaced the first vertical distance away from the upper conductor bottom surface area by the dielectric material;

wherein the bottom of the second surface area, the bottom of the fourth surface area and the bottom the sixth surface area are each spaced the first vertical distance away from the lower conductor top surface area by the dielectric material;

wherein the second perimeter edge portion of the first conductor is spaced directly apart from the first perimeter edge portion of the third conductor by the dielectric material, and wherein the second perimeter edge portion of the third conductor is spaced directly apart from the first perimeter edge portion of the fifth conductor by the dielectric material; and

wherein the fourth perimeter edge portion of the first conductor is spaced directly apart from the third perimeter edge portion of the third conductor by the dielectric material, and wherein the fourth perimeter edge portion of the third conductor is spaced directly apart from the third perimeter edge portion of the fifth conductor by the dielectric material;

a substrate comprising a substrate top surface area and a substrate bottom surface area; and

wherein all the perimeter edge portions of the first, second, third, fourth, fifth, and sixth conductors are located between the substrate top surface area and the substrate bottom surface area.

23. The arrangement for energy conditioning of claim 22, wherein the first, second, third, fourth, fifth, and sixth conductors are each operable as a feedthrough conductor.

24. The arrangement for energy conditioning of claim 23, wherein the first, second, third, fourth, fifth, and sixth conductors are each operable to transmit digital data when the integrated circuit chip is energized.

25. The arrangement for energy conditioning of claim 24, wherein the upper, center and lower conductors are operable together as a common electrical reference when the integrated circuit chip is energized.

26. An arrangement for energy conditioning comprising:

a. a first plurality of at least three conductors, wherein each conductor of the first plurality includes a conductor first edge, a conductor second edge and a conductor first part, and wherein the respective conductor first part of each conductor in the first plurality includes;

i. a first edge part of the respective conductor first edge and a second edge part of the respective conductor second edge, wherein the respective first and respective second edge parts are parallel to one another, and

ii. a first planar surface area that is co-planar with the respective first and respective second edge parts, and wherein the respective first planar surface area extends from the respective first edge part to the respective second edge part;

b. a second plurality of at least three conductors, wherein each conductor of the second plurality includes a third conductor edge, a fourth conductor edge and a conductor second part, and wherein the respective conductor second part of each conductor in the second plurality includes;

i. a third edge part of the respective third conductor edge and a fourth edge part of the respective fourth conductor edge, wherein the respective third and respective fourth edge parts are parallel to one another, and

ii. a second planar surface area that is co-planar with the respective third and respective fourth edge parts, wherein the respective second planar surface area extends from the respective third edge part to the respective the fourth edge part;

c. a first, second and third shielding conductor that are conductively connected to one another;

wherein

i. at least the second shielding conductor is electrically isolated from all of the conductor first and conductor second parts,

ii. all the first and second edge parts of the first plurality are co-planar with one another,

iii. all the third and fourth edge parts of the second plurality are co-planar with one another,

iv. all the first planar surface areas of the first plurality are parallel to all the second planar surface areas of the second plurality,

v. the second shielding conductor physically shields all the first and second edge parts of the first plurality from all the third and fourth edge parts of the second plurality, and

vi. each conductor first part of the first plurality is aligned directly opposite to one respective corresponding conductor second part in the second plurality such that;

(a) the respective first edge part of each respective conductor first edge in each of the conductor first parts is correspondent and aligned to a corresponding respective third edge part of the respective conductor third edge in each corresponding respective conductor second part, and

(b) the respective second edge part of the respective conductor second edge in each of the conductor first parts is correspondent and aligned to a corresponding respective fourth edge part of the respective conductor fourth edge in each corresponding respective conductor second part.

27. The arrangement for energy conditioning of claim 26, wherein the first plurality comprises at least six conductors and the second plurality comprises at least six conductors.

28. The arrangement for energy conditioning of claim 26, wherein each respective conductor of the first and second pluralities is configured to operate as a feedthrough conductor.

29. The arrangement for energy conditioning of claim 28, wherein the respective conductor first and respective conductor second edges of at least one conductor of the first plurality are coplanar with one another along a first length.

30. The arrangement for energy conditioning of claim 26, wherein

a. all the first planar surface areas of the first plurality are positioned a first distance from a first surface area of the second shielding conductor;

and

b. all the second planar surface areas of the second plurality are positioned a second distance from a second surface area of the second shielding conductor.

31. The arrangement for energy conditioning of claim 26, wherein at least one conductor of the first plurality is coupled to an integrated circuit chip.

32. The arrangement for energy conditioning of claim 26, wherein all the conductor first parts of the first plurality and all the conductor second parts of the second plurality are each at least partially imbedded within an integrated circuit chip.

33. The arrangement for energy conditioning of claim 26, wherein each of the first, second and third shielding conductors includes a shielding surface area.

34. The arrangement for energy conditioning of claim 26, wherein all the conductor first parts of the first plurality and all the conductor second parts of the second plurality are each at least partially imbedded within a substrate.

35. The arrangement for energy conditioning of claim 34, wherein no conductor is positioned between any one of the first planar surface areas of the first plurality and the second shielding conductor.

36. The arrangement for energy conditioning of claim 35, wherein

a. there is no conductor positioned between any two conductor first parts of the first plurality that are each next to one another;

and

b. there is no conductor positioned between any two conductor second parts of the second plurality that are each next to one another.

37. The arrangement for energy conditioning of claim 31, wherein the at least one conductor of the first plurality is operable to propagate an energy signal when at least the first plurality is energized.

38. The arrangement for energy conditioning of claim 26, wherein all conductor first parts of the first plurality are electrically isolated from all conductor second parts of the second plurality.

39. The arrangement for energy conditioning of claim 32, further comprising:

a. a fourth shielding conductor that is offset from, and parallel to, the third shielding conductor;

b. a fifth shielding conductor that is offset from, and parallel to, the fourth shielding conductor;

c. a sixth shielding conductor that is offset from, and parallel to, the fifth shielding conductor, wherein

i. the fifth shielding conductor is at least partially located between the fourth and sixth shielding conductors, and

ii. the fourth, fifth and sixth shielding conductors are connected to one another;

d. a first energy conductor positioned at least partially between the fourth and the fifth shielding conductors, wherein the first energy conductor includes;

i. a first energy conductor edge of the first energy conductor and a second energy conductor edge of the first energy conductor, wherein the first energy conductor edge of the first energy conductor is parallel to the second energy conductor edge of the first energy conductor along at least a first part of the first energy conductor, and

ii. a third planar surface area that extends from the first energy conductor edge of the first energy conductor to the second energy conductor edge of the first energy conductor; and

e. a second energy conductor positioned at least partially between the fifth and the sixth shielding conductors, wherein the second energy conductor includes;

i. a first energy conductor edge of the second energy conductor and a second energy conductor edge of the second energy conductor, wherein the first energy conductor edge of the second energy conductor is parallel to the second energy conductor edge of the second energy conductor along at least a second part of the second energy conductor, and

ii. a fourth planar surface area that extends from the first energy conductor edge of the second energy conductor to the second energy conductor edge of the second energy conductor.

40. The arrangement for energy conditioning of claim 39, wherein the first energy conductor edge of the first energy conductor along the first part of the first energy conductor aligns with the first energy conductor edge of the second energy conductor along the second part of the second energy conductor.

41. The arrangement for energy conditioning of claim 40, wherein the first and second energy conductors are conductively connected to one another.

42. The arrangement for energy conditioning of claim 41, wherein at least one of the first and second energy conductors is configured to connect to an energy source.

43. The arrangement for energy conditioning of claim 39, wherein the conductor first parts and the conductor second parts are each electrically isolated from the first and second energy conductors.

44. The arrangement for energy conditioning of claim 42, wherein the conductor first parts of the first plurality and the conductor second parts of the second plurality are operable for energy propagation when the arrangement for energy conditioning is energized.

45. The arrangement for energy conditioning of claim 44, wherein each one of the first, second and third shielding conductors includes a shielding surface area;

and

wherein the shielding surface areas of the first, second and third shielding conductors are parallel with one another.

92. The arrangement for energy conditioning of claim 39, wherein

i. all the first edge parts in the first plurality and all the third edge parts in the second plurality are of equal length, and

ii. all the second edge parts in the first plurality and all the fourth edge parts in the second plurality are of equal length.

46. An arrangement for energy conditioning comprising:

a. a first plurality of conductors, wherein each conductor of the first plurality includes a conductor first edge, a conductor second edge and a conductor first section, and wherein the respective conductor first section of each conductor in the first plurality includes;

i.. a first edge portion of the respective conductor first edge and a second edge portion of the respective conductor second edge, wherein the respective first and respective second edge portions are parallel to one another, and

ii. a first planar surface area that is co-planar with the respective first and respective second edge portions, and wherein the respective first planar surface area extends from the respective first edge portion to the respective second edge portion;

b. a second plurality of conductors, wherein each conductor of the second plurality includes a conductor third edge, a conductor fourth edge and a conductor second section, and wherein the respective conductor second section of each conductor in the second plurality includes;

i. a third edge portion of the respective conductor third edge and a fourth edge portion of the respective conductor fourth edge, wherein the respective third and respective fourth edge portions are parallel to one another, and

ii. a second planar surface area that is co-planar with the respective third and respective fourth edge portions, and wherein the respective second planar surface area extends from the respective third edge portion to the respective fourth edge portion;

c. a first, second and third shielding conductor;

wherein

i. all the first and second edge portions of the first plurality are co-planar with one another,

ii. all the third and fourth edge portions of the second plurality are co-planar with one another,

iii. all the first planar surface areas of the first plurality are parallel to all the second planar surface areas of the second plurality,

iv. the second shielding conductor shields all the first and second edge portions of the first plurality from all the third and fourth edge portions of the second plurality, and

v. each respective conductor first section in the first plurality is positioned directly opposite to, and aligned with, one corresponding respective conductor second section in the second plurality such that;

a) the first edge portion in the same respective conductor first section of the first plurality is correspondent and aligned to the third edge portion in the same respective one corresponding respective conductor second section of the second plurality; and

b) the second edge portion in the same respective conductor first section of the first plurality is correspondent and aligned to the fourth edge portion in the same respective one corresponding respective conductor second section of the second plurality.

47. The arrangement for energy conditioning of claim 46, wherein

i. the first plurality comprises at least three conductors;

and

ii. the second plurality comprises at least three conductors.

48. The arrangement for energy conditioning of claim 46, wherein

i. the first plurality comprises at least six conductors;

and

ii. the second plurality comprises at least six conductors.

49. The arrangement for energy conditioning of claim 46, including:

a. a substrate; and

b. an integrated circuit wafer, wherein

i. the integrated circuit wafer is attached to the substrate,

ii. a first end of a first conductor of the first plurality is physically attached to the integrated circuit wafer at a first location of the integrated circuit wafer,

iii. a first end of a second conductor of the first plurality is physically attached to the integrated circuit wafer at a second location of the integrated circuit wafer, and

iv. a first end of a third conductor of the first plurality is physically attached to the integrated circuit wafer at a third location of the integrated circuit wafer.

50. The arrangement for energy conditioning of claim 47, further including:

a. a substrate; and

b. an integrated circuit wafer;

wherein

i. the integrated circuit wafer is attached to the substrate,

ii. a first end of a first conductor of the first plurality is physically attached to the integrated circuit wafer at a first location of the integrated circuit wafer,

iii. a first end of a second conductor of the first plurality is physically attached to the integrated circuit wafer at a second location of the integrated circuit wafer,

iv. a first end of a third conductor of the first plurality is physically attached to the integrated circuit wafer at a third location of the integrated circuit wafer,

v. a first end of a fourth conductor of the first plurality is physically attached to the integrated circuit wafer at a fourth location of the integrated circuit wafer,

vi. a first end of a fifth conductor of the first plurality is physically attached to the integrated circuit wafer at a fifth location of the integrated circuit wafer, and

vii. a first end of a sixth conductor of the first plurality is physically attached to the integrated circuit wafer at a sixth location of the integrated circuit wafer.

51. The arrangement for energy conditioning of claim 49, wherein

(a) the second edge portion of the first conductor of the first plurality is next to the first edge portion of the second conductor of the first plurality,

(b) the second edge portion of the second conductor of the first plurality is next to the first edge portion of the third conductor of the first plurality,

(c) the second edge portion of the third conductor of the first plurality is next to the first edge portion of a fourth conductor of the first plurality,

(d) the second edge portion of a first conductor of the second plurality is next to the first edge portion of a second conductor of the second plurality,

(e) the second edge portion of the second conductor of the second plurality is next to the first edge portion of a third conductor of the second plurality, and

(f) the second edge portion of the third conductor of the second plurality is next to the first edge portion of a fourth conductor of the second plurality.

52. The arrangement for energy conditioning of claim 51, wherein

i. no conductor is positioned between the second edge portion of the first conductor of the first plurality and the first edge portion of the second conductor of the first plurality,

ii. no conductor is positioned between the second edge portion of the second conductor of the first plurality and the first edge portion of the third conductor of the first plurality,

iii. no conductor is positioned between the second edge portion of the third conductor of the first plurality and the first edge portion of the fourth conductor of the first plurality,

iv. no conductor is positioned between the second edge portion of the first conductor of the second plurality and the first edge portion of the second conductor of the second plurality,

v. no conductor is positioned between the second edge portion of the second conductor of the second plurality and the first edge portion of the third conductor of the second plurality, and

vi. no conductor is positioned between the second edge portion of the third conductor of the second plurality and the first edge portion of the fourth conductor of the second plurality.

53. The arrangement for energy conditioning of claim 52, wherein

i. the first conductor of the first plurality is operable to propagate a first energy signal when the first plurality is energized,

ii. the first conductor of the second plurality is operable to propagate a second energy signal when the second plurality is energized, and

iii. the first and second energy signals are each unrelated to one another when the first and second pluralities are energized.

54. The arrangement for energy conditioning of claim 53, wherein

i. the second conductor of the first plurality is operable to propagate a third energy signal when the first plurality is energized,

ii. the first and third energy signals are related to one another when the first and second pluralities are energized, and

iii. the second and third energy signals are unrelated to one another when the first and second pluralities are energized.

70. The arrangement for energy conditioning of claim 46, further comprising:

a. at least a first shielding planar surface area of the first shielding conductor;

b. at least a second shielding planar surface area of the second shielding conductor;

c. at least a third shielding planar surface area of the third shielding conductor;

d. a fourth shielding conductor that includes at least a fourth shielding planar surface area;

e. a fifth shielding conductor that includes at least a fifth shielding planar surface area;

f. a sixth shielding conductor that includes at least a sixth shielding planar surface area;

g. a first energy conductor that includes at least a first shielded planar surface area;

h. a second energy conductor that includes at least a second shielded planar surface area;

i. a substrate for at least one integrated circuit wafer;

j. a first circuit portion of a first circuit;

k. a second circuit portion of a second circuit;

l. a third circuit portion of a third circuit; and

m. a fourth circuit portion of a fourth circuit;

wherein

i. the first plurality of conductors includes at least four conductors,

ii. the second plurality of conductors includes at least four conductors,

iii. each conductor in the first plurality is configured as a feedthrough conductor and each conductor of the second plurality is configured as a feedthrough conductor,

iv. each conductor first section of each respective conductor in the first plurality is located within the substrate,

v. each conductor second section of each respective conductor in the second plurality is located within the substrate,

vi. the first, second, third, fourth, fifth and sixth shielding conductors are each electrically isolated from the first and second pluralities and the first and second energy conductors,

vii. the first, second and third shielding conductors are conductively connected to one another and the fourth, fifth and sixth shielding conductors are conductively connected to one another,

viii. one or more of the first, second or third shielding conductors is conductively connected to one or more of the fourth, fifth or sixth shielding conductors,

ix. the first and second energy conductors are not of the first and second pluralities,

x. the fifth shielding planar surface area of the fifth shielding conductor is between at least the first shielded planar surface area of the first energy conductor and the second shielded planar surface area of the second energy conductor,

xi. the first shielded planar surface area, the fifth shielding planar surface area and the second shielded planar surface area are between the fourth and sixth shielding planar surface areas, and

xii. the fifth shielding planar surface area extends beyond the first and second shielded planar surface areas such that the first shielded planar surface area is physically shielded from the second shielded planar surface area by the fifth shielding planar surface area.

71. The arrangement for energy conditioning of claim 70, wherein

i. the second edge portion of a first conductor in the first plurality is next to, parallel to, and spaced directly apart from the first edge portion of a second conductor in the first plurality,

ii. the second edge portion of the second conductor in the first plurality is next to, parallel to, and spaced directly apart from the first edge portion of a third conductor in the first plurality,

iii. the second edge portion of the third conductor in the first plurality is next to, parallel to, and spaced directly apart from the first edge portion of a fourth conductor in the first plurality,

iv. the fourth edge portion of a first conductor in the second plurality is next to, parallel to, and spaced directly apart from the third edge portion of a second conductor in the second plurality,

v. the fourth edge portion of the second conductor in the second plurality is next to, parallel to, and spaced directly apart from the third edge portion of a third conductor in the second plurality, and

vi. the fourth edge portion of the third conductor in the second plurality is next to, parallel to, and spaced directly apart from the third edge portion of a fourth conductor in the second plurality.

72. The arrangement for energy conditioning of claim 71, wherein

i. only a dielectric is between the second edge portion of the first conductor in the first plurality and the first edge portion of the second conductor in the first plurality,

ii. only the dielectric is between the second edge portion of the second conductor in the first plurality and the first edge portion of the third conductor in the first plurality,

iii. only the dielectric is between the second edge portion of the third conductor in the first plurality and the first edge portion of the fourth conductor in the first plurality,

iv. only the dielectric is between the fourth edge portion of the first conductor in the second plurality and the third edge portion of the second conductor in the second plurality,

v. only the dielectric is between the fourth edge portion of the second conductor in the second plurality and the third edge portion of the third conductor in the second plurality, and

vi. only the dielectric is between the fourth edge portion of the third conductor in the second plurality and the third edge portion of the fourth conductor in the second plurality.

73. The arrangement for energy conditioning of claim 72, wherein the first planar surface area in each conductor first section in each conductor of the first plurality is superposed with a respective corresponding particular second planar surface area in the respective corresponding conductor second sections in the second plurality.

74. The arrangement for energy conditioning of claim 73, wherein

i. the first circuit portion includes the conductor first section of the first conductor in the first plurality,

ii. the second circuit portion includes the conductor first section of the third conductor in the first plurality,

iii. the third circuit portion includes the conductor second section of the first conductor in the second plurality, and

iv. the fourth circuit portion includes the conductor second section of the third conductor in the second plurality.

75. The arrangement for energy conditioning of claim 74, wherein

i. all the first edge portions in the first plurality and all the third edge portions in the second plurality are of equal length, and

ii. all the second edge portions in the first plurality and all the fourth edge portions in the second plurality are of equal length.

76. The arrangement for energy conditioning of claim 75, wherein

i. electrical signals propagating along the first circuit portion are unrelated to electrical signals propagating along the third circuit portion when the arrangement for energy conditioning is energized, and

ii. electrical signals propagating along the second circuit portion are at least electrically shielded from electrical signals propagating along the fourth circuit portion by at least the second shielding conductor when the arrangement for energy conditioning is energized.

77. The arrangement for energy conditioning of claim 76, wherein the substrate for at least one integrated circuit wafer is operable for at least one conductive attachment to an integrated circuit wafer.

78. The arrangement for energy conditioning of claim 77, wherein one or more of the first and second energy conductors is operable for a conductive connection to a power supply.

79. The arrangement for energy conditioning of claim 78, wherein the first and second energy conductors are conductively connected to one another.

55. An arrangement for energy conditioning comprising:

a. a first plurality of at least three conductors, wherein each conductor of the first plurality includes a conductor first edge, a conductor second edge and a conductor first section, wherein each respective conductor first section of each conductor in the first plurality includes

i. a first edge segment of the respective conductor first edge and a second edge segment of the respective conductor second edge, wherein the respective first and respective second edge segments are parallel to one another, and

ii. a first planar surface area that is co-planar with the respective first and respective second edge segments such that the respective first planar surface area extends from the respective first edge segment to the respective second edge segment;

b. a second plurality of at least three conductors, wherein each conductor of the second plurality includes a conductor third edge, a conductor fourth edge and a conductor second section, and wherein the respective conductor second section of each conductor in the second plurality includes

i. a third edge segment of the respective conductor third edge and a fourth edge segment of the respective conductor fourth edge, wherein the respective third and respective fourth edge segments are parallel to one another, and

ii. a second planar surface area that is co-planar with the respective third and respective fourth edge segments such that the respective second planar surface area extends from the respective third edge segment to the respective fourth edge segment;

c. a first, second and third shielding conductor;

wherein

i. at least the second shielding conductor is electrically isolated from all the conductor first sections of the first plurality and all the conductor second sections of the second plurality,

ii. all the first and second edge segments of the first plurality are co-planar with one another,

iii. all the third and fourth edge segments of the second plurality are co-planar with one another,

iv. all the first planar surface areas of the first plurality are parallel to all the second planar surface areas of the second plurality,

v. the second shielding conductor physically shields each respective first and respective second edge segment of the first plurality from a corresponding respective third and a corresponding respective fourth edge segment of the second plurality, and

vi. each conductor first section in the first plurality of conductors aligns with a respective corresponding conductor second section in the second plurality of conductors.

56. The arrangement for energy conditioning of claim 55, wherein

i. the second edge segment of a first conductor in the first plurality is spaced a first distance from the first edge segment in a second conductor in the first plurality,

ii. the second edge segment of the second conductor of the first plurality is spaced a second distance from the first edge segment of a third conductor of the first plurality,

iii. the second edge segment of the third conductor of the first plurality is spaced a third distance from the first edge segment of a fourth conductor of the first plurality,

iv. the second edge segment of a first conductor of the second plurality is spaced the first distance from the first edge segment of a second conductor of the second plurality,

v. the second edge segment of the second conductor of the second plurality is spaced the second distance from the first edge segment of a third conductor of the second plurality, and

vi. the second edge segment of the third conductor of the second plurality is spaced the third distance from the first edge segment of a fourth conductor of the second plurality.

57. The arrangement for energy conditioning of claim 56, wherein

i. no conductor is positioned between the second edge segment of the first conductor of the first plurality and the first edge segment of the second conductor of the first plurality,

ii. no conductor is positioned between the second edge segment of the second conductor of the first plurality and the first edge segment of the third conductor of the first plurality,

iii. no conductor is positioned between the second edge segment of the third conductor of the first plurality and the first edge segment of the fourth conductor of the first plurality,

iv. no conductor is positioned between the second edge segment of the first conductor of the second plurality and the first edge segment of the second conductor of the second plurality,

v. no conductor is positioned between the second edge segment of the second conductor of the second plurality and the first edge segment of the third conductor of the second plurality, and

vi. no conductor is positioned between the second edge segment of the third conductor of the second plurality and the first edge segment of the fourth conductor of the second plurality.

58. The arrangement for energy conditioning of claim 57, wherein

i. the conductor first section of the first conductor of the first plurality is operable for first digital signal propagations when the arrangement for energy conditioning is energized,

ii. the conductor second section of the first conductor of the second plurality is operable for second digital signal propagations when the arrangement for energy conditioning is energized,

iii. the conductor first section of the second conductor of the first plurality is operable for third digital signal propagations when the arrangement for energy conditioning is energized,

iv. the first digital signal propagations and the second digital signal propagations are unrelated to one another when the arrangement for energy conditioning is energized, and

v. the first digital signal propagations and the third signal propagations are related to one another when the arrangement for energy conditioning is energized.

59. The arrangement for energy conditioning of claim 58, wherein the conductor second section of the second conductor of the second plurality is operable for fourth digital signal propagations such that the second digital signal propagations and the fourth signal propagations are related to one another when the arrangement for energy conditioning is energized.

60. The arrangement for energy conditioning of claim 59, wherein

i. each conductor in the first plurality is configured to operate as a feedthrough conductor, and

ii. each conductor in the second plurality is configured to operate as a feedthrough conductor.

61. The arrangement for energy conditioning of claim 58, wherein

i. at least one conductor in the first plurality is conductively connected to an integrated circuit chip, and

ii. at least one conductor in the second plurality is conductively connected to the integrated circuit chip.

62. The arrangement for energy conditioning of claim 60, wherein each conductor first section of the first plurality and each conductor second section of the second plurality are at least partially imbedded within an integrated circuit wafer.

63. The arrangement for energy conditioning of claim 57, wherein

i. the first, second and third shielding conductors each include a third planar surface area, and

ii. the third planar surface areas of the first, second, and third shielding conductors are stacked parallel with one another.

64. The arrangement for energy conditioning of claim 63, wherein each conductor first section in the first plurality and each conductor second section in the second plurality are at least partially imbedded within a substrate.

65. The arrangement for energy conditioning of claim 57, wherein no conductor of the second plurality is positioned between any one of the first planar surface areas and the second shielding conductor.

66. The arrangement for energy conditioning of claim 64, further comprising an integrated circuit wafer, wherein

i. the integrated circuit wafer is attached to the substrate,

ii. a first end of the first conductor of the first plurality is physically attached to a first location of the integrated circuit wafer,

iii. a first end of the second conductor of the first plurality is physically attached to a second location of the integrated circuit wafer,

iv. a first end of the third conductor of the first plurality is physically attached to a third location of the integrated circuit wafer,

v. a first end of the fourth conductor of the first plurality is physically attached to a fourth location of the integrated circuit wafer,

vi. a first end of the first conductor of the second plurality is physically attached to a fifth location of the integrated circuit wafer,

vii. a first end of the second conductor of the second plurality is physically attached to a sixth location of the integrated circuit wafer,

viii. a first end of the third conductor of the second plurality is physically attached to a seventh location of the integrated circuit wafer, and

ix. a first end of the fourth conductor of the second plurality is physically attached to an eighth location of the integrated circuit wafer.

67. The arrangement for energy conditioning of claim 66, wherein

i. the conductor first section of the first conductor of the first plurality is operable for first digital signal propagations when the arrangement for energy conditioning is energized,

ii. the conductor second section of the first conductor of the second plurality is operable for second digital signal propagations when the arrangement for energy conditioning is energized,

iii. the conductor first section of the second conductor of the first plurality is operable for third digital signal propagations when the arrangement for energy conditioning is energized, and

iv. when the arrangement for energy conditioning is energized the first digital signal propagations and the second digital signal propagations are unrelated to one another such that the first digital signal propagations and the third signal propagations will be related to one another.

68. The arrangement for energy conditioning of claim 67, wherein at least one of the first, second and third shielding conductors is conductively connected to a ninth location of the integrated circuit wafer.

69. The arrangement for energy conditioning of claim 68, wherein

i. each conductor in the first plurality is configured to operate as a feedthrough conductor, and

ii. each conductor in the second plurality is configured to operate as a feedthrough conductor.

80. The arrangement for energy conditioning of claim 55, wherein

a. the first shielding conductor includes at least a first shielding planar surface area,

b. the second shielding conductor includes at least a second shielding planar surface area,

c. the third shielding conductor includes at least a third shielding planar surface area,

d. the first, second and third shielding conductors are conductively connected to one another,

e. the second edge segment of a first conductor in the first plurality is next to the first edge segment of a second conductor in the first plurality such that the second edge segment of the first conductor and the first edge segment of the second conductor are parallel and separated directly apart from one another by dielectric,

f. the second edge segment of the second conductor in the first plurality is next to the first edge segment of a third conductor in the first plurality such that the second edge segment of the second conductor and the first edge segment of the third conductor are parallel and separated directly apart from one another by the dielectric,

g. the second edge segment of the third conductor in the first plurality is next to the first edge segment of a fourth conductor in the first plurality such that the second edge segment of the third conductor and the first edge segment of the fourth conductor are parallel and separated directly apart from one another by the dielectric,

h. the fourth edge segment of a first conductor in the second plurality is next to the third edge segment of a second conductor in the second plurality such that the fourth edge segment of the first conductor and the third edge segment of the second conductor are parallel and separated directly apart from one another by the dielectric,

i. the fourth edge segment of the second conductor in the second plurality is next to the third edge segment of a third conductor in the second plurality such that the fourth edge segment of the second conductor and the third edge segment of the third conductor are parallel and separated directly apart from one another by the dielectric,

j. the fourth edge segment of the third conductor in the second plurality is next to the third edge segment of a fourth conductor in the second plurality such that the fourth edge segment of the third conductor and the third edge segment of the fourth conductor are parallel and separated directly apart from one another by the dielectric, and

k. the first planar surface areas in the first plurality are spaced apart from the second planar surface areas in the second plurality by at least the second shielding planar surface area of the second shielding conductor maintained therebetween, such that each one of the first planar surface areas in the first plurality is physically shielded from each one of the second planar surface areas in the second plurality by the second shielding planar surface area of the second shielding conductor.

81. The arrangement for energy conditioning of claim 80, wherein

i. the first planar surface area of the conductor first section of a first conductor in the first plurality is in superposed alignment with the second planar surface area of the conductor second section of a first conductor in the second plurality such that:

(a) the first edge segment in the conductor first section of the first conductor in the first plurality corresponds and aligns with the third edge segment in the conductor second section of the first conductor in the second plurality, and

(b) the second edge segment in the conductor first section of the first conductor in the first plurality corresponds and aligns with the fourth edge segment in the conductor second section of the first conductor in the second plurality,

ii. the first planar surface area of the conductor first section of a second conductor in the first plurality is in superposed alignment with the second planar surface area of the conductor second section of a second conductor in the second plurality such that;

(a) the first edge segment in the conductor first section of the second conductor in the first plurality corresponds and aligns with the third edge segment in the conductor second section of the second conductor in the second plurality, and

(b) the second edge segment in the conductor first section of the second conductor in the first plurality corresponds and aligns with the fourth edge segment in the conductor second section of the second conductor in the second plurality,

iii. the first planar surface area of the conductor first section of a third conductor in the first plurality is in superposed alignment with the second planar surface area of the conductor second section of a third conductor in the second plurality such that;

(a) the first edge segment in the conductor first section of the third conductor in the first plurality corresponds and aligns with the third edge segment in the conductor second section of the third conductor in the second plurality, and

(b) the second edge segment in the conductor first section of the third conductor in the first plurality corresponds and aligns with the fourth edge segment in the conductor second section of the third conductor in the second plurality,

iv. the first planar surface area of the conductor first section of a fourth conductor in the first plurality is in superposed alignment with the second planar surface area of the conductor second section of a fourth conductor in the second plurality such that;

(a) the first edge segment in the conductor first section of the fourth conductor in the first plurality corresponds and aligns with the third edge segment in the conductor second section of the fourth conductor in the second plurality, and

(b) the second edge segment in the conductor first section of the fourth conductor in the first plurality corresponds and aligns with the fourth edge segment in the conductor second section of the fourth conductor in the second plurality.

82. The arrangement for energy conditioning of claim 81, wherein

i. only the dielectric is between the second edge segment in the conductor first section of the first conductor in the first plurality and the first edge segment in the conductor first section of the second conductor in the first plurality,

ii. only the dielectric is between the second edge segment in the conductor first section of the second conductor in the first plurality and the first edge segment in the conductor first section of the third conductor in the first plurality,

iii. only the dielectric is between the second edge segment in the conductor first section of the third conductor in the first plurality and the first edge segment in the conductor first section of the fourth conductor in the first plurality,

iv. only the dielectric is between the fourth edge segment in the conductor first section of the first conductor in the second plurality and the third edge segment in the conductor first section of the second conductor in the second plurality,

v. only the dielectric is between the fourth edge segment in the conductor first section of the second conductor in the second plurality and the third edge segment in the conductor first section of the third conductor in the second plurality, and

vi. only the dielectric is between the fourth edge segment in the conductor first section of the third conductor in the second plurality and the third edge segment in the conductor first section of the fourth conductor in the second plurality.

83. The arrangement for energy conditioning of claim 82, wherein

i. each of the respective conductors in the first plurality is configured as a feedthrough conductor,

ii. each of the respective conductors in the second plurality is configured as a feedthrough conductor,

iii. the first edge segment in the conductor first section of the first conductor in the first plurality and the third edge segment in the conductor second section of the first conductor in the second plurality are of equal length,

iv. the second edge segment in the conductor first section of the first conductor in the first plurality and the fourth edge segment in the conductor second section of the first conductor in the second plurality are of equal length,

v. the first edge segment in the conductor first section of the second conductor in the first plurality and the third edge segment in the conductor second section of the second conductor in the second plurality are of equal length,

vi. the second edge segment in the conductor first section of the second conductor in the first plurality and the fourth edge segment in the conductor second section of the second conductor in the second plurality are of equal length,

vii. the first edge segment in the conductor first section of the third conductor in the first plurality and the third edge segment in the conductor second section of the third conductor in the second plurality are of equal length,

viii. the second edge segment in the conductor first section of the third conductor in the first plurality and the fourth edge segment in the conductor second section of the third conductor in the second plurality are of equal length,

ix. the first edge segment in the conductor first section of the fourth conductor in the first plurality and the third edge segment in the conductor second section of the fourth conductor in the second plurality are of equal length, and

x. the second edge segment in the conductor first section of the fourth conductor in the first plurality and the fourth edge segment in the conductor second section of the fourth conductor in the second plurality are of equal length.

84. The arrangement for energy conditioning of claim 83, further comprising:

a. a first circuit portion of a first circuit, wherein the first circuit portion includes the conductor first section of the first conductor in the first plurality;

b. a second circuit portion of a second circuit, wherein the second circuit portion includes the conductor first section of the third conductor of the first plurality;

c. a third circuit portion of a third circuit, wherein the third circuit portion includes the conductor second section of the first conductor in the second plurality; and

d. a fourth circuit portion of a fourth circuit, wherein the fourth circuit portion includes the conductor second section of the third conductor in the second plurality.

85. The arrangement for energy conditioning of claim 84, wherein

i. electrical signals propagating along the first circuit portion are unrelated to electrical signals propagating along the third circuit portion when the arrangement for energy conditioning is energized, and

ii. electrical signals propagating along the second circuit portion are electrically shielded from electrical signals propagating along the fourth circuit portion by at least the second shielding conductor when the arrangement for energy conditioning is energized.

86. The arrangement for energy conditioning of claim 85, wherein

i. each respective conductor first section of the first, second, third and fourth conductors in the first plurality and each respective conductor second section of the first, second, third and fourth conductors in the second plurality is located within a multi-layered substrate,

ii. the first circuit portion includes the conductor first section of the second conductor in the first plurality,

iii. the second circuit portion includes the conductor first section of the fourth conductor in the first plurality,

iv. the third circuit portion includes the conductor second section of the second conductor in the second plurality, and

v. the fourth circuit portion includes the conductor second section of the fourth conductor in the second plurality.

87. The arrangement for energy conditioning of claim 84, further comprising:

a. an integrated circuit wafer;

b. a multi-layered substrate;

c. a fourth shielding conductor that includes at least a fourth shielding planar surface area;

d. a fifth shielding conductor that includes at least a fifth shielding planar surface area;

e. a sixth shielding conductor that includes at least a sixth shielding planar surface area;

f. a first energy conductor that includes at least a first shielded planar surface area;

g. a second energy conductor that includes at least a second shielded planar surface area;

wherein

i. the integrated circuit wafer is attached to the multi-layered substrate,

ii. each respective conductor first section of the first, second, third and fourth conductors in the first plurality is located within the multi-layered substrate,

iii. each respective conductor second section of the first, second, third and fourth conductors in the second plurality is located within the multi-layered substrate,

iv. the first circuit portion includes the conductor first section of the first conductor in the first plurality,

v. the second circuit portion includes the conductor first section of the third conductor in the first plurality,

vi. the third circuit portion includes the conductor second section of the first conductor in the second plurality, and vii. the fourth circuit portion includes the conductor second section of the third conductor in the second plurality,

viii. the fourth, fifth and sixth shielding conductors are conductively connected to one another,

ix. one or more of the first, second or third shielding conductors is conductively connected to one or more of the fourth, fifth or sixth shielding conductors,

x. one or more of the first, second, third, fourth, fifth or sixth shielding conductors is conductively connected to a fifth part of the integrated circuit wafer,

xi. the first, third, fourth, fifth and sixth shielding conductors are each electrically isolated from the first and second pluralities and the first and second energy conductors,

xii. the first and second energy conductors are not of the first and second pluralities,

xiii. the fifth shielding planar surface area of the fifth shielding conductor is sandwiched by the first shielded planar surface area of the first energy conductor and the second shielded planar surface area of the second energy conductor,

xiv. the first shielded planar surface area, the fifth shielding planar surface area and the second shielded planar surface area are sandwiched by the fourth and sixth shielding planar surface areas, and

xv. the fifth shielding planar surface area extends beyond the first and second shielded planar surface areas such that the first shielded planar surface area is physically shielded from the second shielded planar surface area by the fifth shielding planar surface area.

88. The arrangement for energy conditioning of claim 87, wherein

i. the first circuit includes a first part of the integrated circuit wafer,

ii. the second circuit includes a second part of the integrated circuit wafer,

iii. the third circuit includes a third part of the integrated circuit wafer, and

iv. the fourth circuit includes a fourth part of the integrated circuit wafer.

89. The arrangement for energy conditioning of claim 88, wherein

i. electrical signals propagating along the conductor first section of the first conductor in the first plurality are unrelated to electrical signals propagating along the conductor first section of the first conductor in the second plurality such that electrical signals propagating along the first circuit portion are unrelated to electrical signals propagating along the third circuit portion when the arrangement for energy conditioning is energized, and

ii. electrical signals propagating along the second circuit portion are at least electrically shielded from the electrical signals propagating along the fourth circuit portion by at least the second shielding conductor when the arrangement for energy conditioning is energized.

90. The arrangement for energy conditioning of claim 89, wherein

i. at least one of the first and second energy conductors is operable to propagate energy to the integrated circuit wafer,

ii. the first circuit portion includes the conductor first section of the second conductor in the first plurality,

iii. the second circuit portion includes the conductor first section of the fourth conductor in the first plurality,

iv. the third circuit portion includes the conductor second section of the second conductor in the second plurality, and

v. the fourth circuit portion includes the conductor second section of the fourth conductor in the second plurality.

91. The arrangement for energy conditioning of claim 90, wherein the first and second energy conductors are conductively connected to one another.

93. An arrangement for energy conditioning comprising:

A. a plurality of three common electrodes, wherein the plurality comprises;

a. a first common electrode that includes at least a first shielding electrode surface area that is maintained upon a first layer of dielectric,

b. a center common electrode that includes at least a center shielding electrode surface area that is maintained upon a third layer of dielectric, and

c. a third common electrode that includes at least a third shielding electrode surface area maintained upon a fifth layer of dielectric;

B. a first plurality of four electrodes, wherein each electrode of the first plurality includes an electrode first edge, an electrode second edge and an electrode first section, and wherein the respective electrode first section of each electrode in the first plurality comprises;

a. a first edge segment of the respective electrode first edge and a second edge segment of the respective electrode second edge, wherein the respective first and respective second edge segments are co-planar and parallel with one another, and

b. a first shielded surface area that fully extends from the respective first edge segment to the respective second edge segment;

C. a second plurality of four electrodes, wherein each electrode of the second plurality includes an electrode third edge, an electrode fourth edge and an electrode second section, and wherein the respective electrode second section of each electrode in the second plurality comprises;

a. a third edge segment of the respective electrode third edge and a fourth edge segment of the respective electrode fourth edge, wherein the respective third and respective fourth edge segments are co-planar and parallel with one another, and

b. a second shielded surface area that fully extends from the respective third edge segment to the respective the fourth edge segment;

wherein

(a) the first, second, and third common electrode are all electrically coupled to one another,

(b) the plurality of three common electrodes is electrically isolated from the first plurality of four electrodes and the second plurality of four electrodes,

(c) all electrode first sections in the first plurality of four electrodes are maintained co-planar with one another upon a second layer of dielectric,

(d) all electrode second sections in the second plurality of four electrodes are maintained co-planar with one another upon a fourth layer of dielectric,

(e) the first, second, third, fourth and fifth layers of dielectric are all parallel with one another, and

(f) the center shielding electrode surface area physically shields all the respective electrode first sections from all the respective electrode second sections.

94. The arrangement for energy conditioning of claim 93, wherein

(a) the second edge segment of the electrode second edge of a first electrode in the first plurality is parallel and positioned next to the first edge segment of the electrode first edge of a second electrode in the first plurality such that the second edge segment of the electrode second edge of the first electrode and the first edge segment of the electrode first edge of the second electrode are spaced apart from one another by a first distance span of the second layer of dielectric maintained therebetween,

(b) the second edge segment of the electrode second edge of the second electrode in the first plurality is parallel and positioned next to the first edge segment of the electrode first edge of a third electrode in the first plurality such that the second edge segment of the electrode second edge of the second electrode and the first edge segment of the electrode first edge of the third electrode are spaced apart from one another by a second distance span of the second layer of dielectric maintained therebetween,

(c) the second edge segment of the electrode second edge of the third electrode in the first plurality is parallel and positioned next to the first edge segment of the electrode first edge of a fourth electrode in the first plurality such that the second edge segment of the electrode second edge of the third electrode and the first edge segment of the electrode first edge of the fourth electrode are spaced apart from one another by a third distance span of the second layer of dielectric maintained therebetween,

(d) the fourth edge segment of the electrode fourth edge of a first electrode in the second plurality is parallel and positioned next to the third edge segment of the electrode third edge of a second electrode in the second plurality such that the fourth edge segment of the electrode fourth edge of the first electrode and the third edge segment of the electrode third edge of the second electrode are spaced apart from one another by a first distance span of the fourth layer of dielectric maintained therebetween,

(e) the fourth edge segment of the electrode fourth edge of the second electrode in the second plurality is parallel and positioned next to the third edge segment of the electrode third edge of a third electrode in the second plurality such that the fourth edge segment of the electrode fourth edge of the second electrode and the third edge segment of the electrode third edge of the third electrode are spaced apart from one another by a second distance span of the fourth layer of dielectric maintained therebetween, and

(f) the fourth edge segment of the electrode fourth edge of the third electrode in the second plurality is parallel and positioned next to the third edge segment of the electrode third edge of a fourth electrode in the second plurality such that the fourth edge segment of the electrode fourth edge of the third electrode and the third edge segment of the electrode third edge of the fourth electrode are spaced apart from one another by a third distance span of the fourth layer of dielectric maintained therebetween.

95. The arrangement for energy conditioning of claim 94, wherein

(a) the first shielded surface area of the electrode first section of the first electrode in the first plurality and the second shielded surface area of the electrode second section of the first electrode in the second plurality are parallel and superposed with one another such that the center shielding electrode surface area completely shields the first shielded surface area of the electrode first section of the first electrode in the first plurality from the second shielded surface area of the electrode second section of the first electrode in the second plurality,

(b) the first shielded surface area of the electrode first section of the second electrode in the first plurality and the second shielded surface area of the electrode second section of the second electrode in the second plurality are parallel and superposed with one another such that the center shielding electrode surface area completely shields the first shielded surface area of the electrode first section of the second electrode in the first plurality from the second shielded surface area of the electrode second section of the second electrode in the second plurality,

(c) the first shielded surface area of the electrode first section of the third electrode in the first plurality and the second shielded surface area of the electrode second section of the third electrode in the second plurality are parallel and superposed with one another such that the center shielding electrode surface area completely shields the first shielded surface area of the electrode first section of the third electrode in the first plurality from the second shielded surface area of the electrode second section of the third electrode in the second plurality, and

(d) the first shielded surface area of the electrode first section of the fourth electrode in the first plurality and the second shielded surface area of the electrode second section of the fourth electrode in the second plurality are parallel and superposed with one another such that the center shielding electrode surface area completely shields the first shielded surface area of the electrode first section of the fourth electrode in the first plurality from the second shielded surface area of the electrode second section of the fourth electrode in the second plurality.

96. The arrangement for energy conditioning of claim 95, wherein

(a) each electrode in the first plurality of four electrodes is configured to operate as a feedthrough electrode,

(b) each electrode in the second plurality of four electrodes is configured to operate as a feedthrough electrode, and

(c) the first plurality and the second plurality are conductively isolated from one another.

97. The arrangement for energy conditioning of claim 96, wherein

(a) the first distance span of the second layer of dielectric and the first distance span of the fourth layer of dielectric are the same,

(b) the second distance span of the second layer of dielectric and the second distance span of the fourth layer of dielectric are the same,

(c) the third distance span of the second layer of dielectric and the third distance span of the fourth layer of dielectric are the same,

(d) the fourth distance span of the second layer of dielectric and the fourth distance span of the fourth layer of dielectric are the same, and

(e) the fifth distance span of the second layer of dielectric and the fifth distance span of the fourth layer of dielectric are the same.

98. The arrangement for energy conditioning of claim 97, wherein each respective electrode in the first plurality does not propagate electrical energy of a circuit attached to any one respective electrode in the second plurality when the arrangement for energy conditioning is energized.

99. The arrangement for energy conditioning of claim 98, further comprising:

A. an electrical first circuit having an first circuit portion, wherein the first circuit portion includes the electrode first section of the first electrode in the first plurality;

B. an electrical second circuit having an second circuit portion, wherein the second circuit portion includes the electrode second section of the first electrode in the second plurality; and

(a) wherein when the arrangement for energy conditioning is energized;

i. portions of electrical energy propagate along the first shielded surface area of the electrode first section of the first electrode in the first plurality, as simultaneously portions of electrical energy propagate along the second shielded surface area of the electrode second section of the first electrode in the second plurality.

100. The arrangement for energy conditioning of claim 95, wherein

(a) each electrode in the first plurality of four electrodes is configured to operate as a feedthrough electrode,

(b) each electrode in the second plurality of four electrodes is configured to operate as a feedthrough electrode,

(c) the first distance span of the second layer of dielectric and the first distance span of the fourth layer of dielectric are the same,

(d) the second distance span of the second layer of dielectric and the second distance span of the fourth layer of dielectric are the same,

(e) the third distance span of the second layer of dielectric and the third distance span of the fourth layer of dielectric are the same,

(f) the fourth distance span of the second layer of dielectric and the fourth distance span of the fourth layer of dielectric are the same, and

(g) the fifth distance span of the second layer of dielectric and the fifth distance span of the fourth layer of dielectric are the same.

101. The arrangement for energy conditioning of claim 100, further comprising:

A. an electrical first circuit having an first circuit portion, wherein the first circuit portion includes at least the electrode first section of the first electrode in the first plurality; and

B. an electrical second circuit having an second circuit portion, wherein the second circuit portion includes at least the electrode second section of the first electrode in the second plurality;

wherein

(a) the electrical first circuit is not conductively connected to the electrical second circuit,

(b) portions of first electrical energy transmissions propagate along the first shielded surface area of the electrode first section of the first electrode in the first plurality when the arrangement for energy conditioning is energized,

(c) portions of second electrical energy transmissions propagate along the second shielded surface area of the electrode second section of the first electrode in the second plurality when the arrangement for energy conditioning is energized, and

(d) the portions of first electrical energy transmissions and the portions of second electrical energy transmissions are unrelated to one another when the arrangement for energy conditioning is energized.

102. The arrangement for energy conditioning of claim 101, wherein the plurality of three common electrodes electrically shields the portions of first electrical energy transmissions from the portions of second electrical energy transmissions when the arrangement for energy conditioning is energized.

103. A method for making an arrangement for energy conditioning, said method comprising:

electrically coupling a shielding upper electrode area of an upper electrode to a shielding center electrode area of a center electrode;

electrically coupling said shielding center electrode area to a shielding lower electrode area of a lower electrode;

electrically isolating a first electrode from said shielding upper electrode area, said shielding center electrode area and said shielding lower electrode area;

electrically isolating a second electrode from said shielding upper electrode area, said shielding center electrode area and said shielding lower electrode area;

electrically isolating said first electrode from said second electrode; and

superposing with one another a bottom first superposed area of a first superposed area of a first shielded surface area of said first electrode and a bottom second superposed area of a second superposed area of a second shielded surface area of said second electrode.

104. An arrangement for energy conditioning, comprising:

a first electrode comprising a first electrode surface area;

a second electrode comprising a second electrode surface area, and wherein said second electrode surface area includes a second electrode superposed area and a second electrode non-superposed area, and wherein said second electrode superposed area comprises a top second electrode superposed area and a bottom second electrode superposed area;

a third electrode comprising a third electrode surface area that includes a third electrode shielding area, and wherein said third electrode shielding area comprises a top third electrode superposed shielding area and a bottom third electrode superposed shielding area;

a fourth electrode comprising a fourth electrode surface area, and wherein said fourth electrode surface area includes a fourth electrode superposed area and a fourth electrode non-superposed area, and wherein said fourth electrode superposed area comprises a top fourth electrode superposed area and a bottom fourth electrode superposed area;

a fifth electrode comprising a fifth electrode surface area;

wherein said first electrode is electrically coupled to at least said third electrode, and wherein said third electrode is electrically coupled to at least said fifth electrode;

wherein said first electrode, said third electrode and said fifth electrode are electrically isolated from said second electrode and said fourth electrode, and wherein said second electrode and said fourth electrode are electrically isolated from one another;

wherein said top second electrode superposed area and said top fourth electrode superposed area are superposed with one another; and

wherein said second electrode superposed area is located above said third electrode surface area, and wherein said fourth electrode superposed area is located below said third electrode surface area such that said second electrode superposed area and said fourth electrode superposed area are shielded from one another by said third electrode shielding area.

105. The arrangement for energy conditioning of claim 104, further comprising:

a first layer of material including a superposed first layer section that comprises a top first layer section surface area and a bottom first layer section surface area that are superposed with one another;

a second layer of material including a superposed second layer section that comprises a top second layer section surface area and a bottom second layer section surface area that are superposed with one another;

a third layer of material including a superposed third layer section that comprises a top third layer section surface area and a bottom third layer section surface area that are superposed with one another;

a fourth layer of material including a superposed fourth layer section that comprises a top fourth layer section surface area and a bottom fourth layer section surface area that are superposed with one another;

wherein said first electrode surface area includes a first electrode shielding area that comprises a top first electrode superposed shielding area and a bottom first electrode superposed shielding area;

wherein said fifth electrode surface area includes a fifth electrode shielding area that comprises a top fifth electrode superposed shielding area and a bottom fifth electrode superposed shielding area;

wherein said bottom first electrode superposed shielding area is spaced apart from said top second electrode superposed area by said superposed first layer section;

wherein said bottom second electrode superposed area is spaced apart from said top third electrode superposed shielding area by said superposed second layer section;

wherein said bottom third electrode superposed shielding area is spaced apart from said top fourth electrode superposed area by said superposed third layer section;

wherein said bottom fourth electrode superposed area is spaced apart from said top fifth electrode superposed shielding area by said superposed fourth layer section; and

wherein said superposed first layer section, said superposed second layer section, said superposed third layer section and said superposed fourth layer section are superposed with one another.

106. The arrangement for energy conditioning of claim 105, further comprising:

an integrated circuit die that includes a plurality of integrated circuits;

wherein said second electrode is electrically coupled to a first integrated circuit of said plurality of integrated circuits of said integrated circuit die; and

wherein said fourth electrode is electrically coupled to a second integrated circuit of said plurality of integrated circuits of said integrated circuit die.

107. The arrangement for energy conditioning of claim 106, wherein said bottom second electrode superposed area and said bottom fourth electrode superposed area are superposed with one another.

108. The arrangement for energy conditioning of claim 107, further comprising:

a substrate comprising a top substrate surface area and a bottom substrate surface area; and

wherein said first electrode shielding area, said superposed first layer section, said second electrode superposed area, said superposed second layer section, said third electrode shielding area, said superposed third layer section, said fourth electrode superposed area, said superposed fourth layer section and said fifth electrode shielding area are all located between said top substrate surface area and said bottom substrate surface area.

109. The arrangement for energy conditioning of claim 108, further comprising:

a shielding structure that includes said first electrode shielding area, said third electrode shielding area and said fifth electrode shielding area; and

wherein said shielding structure is operable for providing at least one voltage reference for energy utilizing said second electrode superposed area when said integrated circuit die is energized.

110. The arrangement for energy conditioning of claim 107, wherein said third electrode is the center electrode of said arrangement for energy conditioning.

111. The arrangement for energy conditioning of claim 105, further comprising:

a sixth electrode comprising a sixth electrode surface area, and wherein said sixth electrode surface area includes a sixth electrode superposed area and a sixth electrode non-superposed area, and wherein said sixth electrode superposed area comprises a top sixth electrode superposed area and a bottom sixth electrode superposed area;

a seventh electrode comprising a seventh electrode surface area, and wherein said seventh electrode surface area includes a seventh electrode superposed area and a seventh electrode non-superposed area, and wherein said seventh electrode superposed area comprises a top seventh electrode superposed area and a bottom seventh electrode superposed area;

an eighth electrode comprising an eighth electrode surface area, and wherein said eighth electrode surface area includes an eighth electrode superposed area and an eighth electrode non-superposed area, and wherein said eighth electrode superposed area comprises a top eighth electrode superposed area and a bottom eighth electrode superposed area;

a ninth electrode comprising a ninth electrode surface area, and wherein said ninth electrode surface area includes a ninth electrode superposed area and a ninth electrode non-superposed area, and wherein said ninth electrode superposed area comprises a top ninth electrode superposed area and a bottom ninth electrode superposed area;

wherein said third electrode is electrically isolated from said sixth electrode, said seventh electrode, said eighth electrode and said ninth electrode, and wherein said sixth electrode, said seventh electrode, said eighth electrode and said ninth electrode are electrically isolated from one another;

wherein said second electrode and said fourth electrode are each electrically isolated from said sixth electrode, said seventh electrode, said eighth electrode and said ninth electrode;

wherein said bottom second electrode superposed area and said bottom fourth electrode superposed area are superposed with one another; and

wherein said top second electrode superposed area, said top sixth electrode superposed area and said top eighth electrode superposed area are co-planar, and wherein said bottom second electrode superposed area, said bottom sixth electrode superposed area and said bottom eighth electrode superposed area are co-planar.

112. The arrangement for energy conditioning of claim 111, further comprising:

a substrate including a top substrate surface area and a bottom substrate surface area; and

wherein said first electrode shielding area, said superposed first layer section, said second electrode superposed area, said superposed second layer section, said third electrode shielding area, said superposed third layer section, said fourth electrode superposed area, said superposed fourth layer section and said fifth electrode shielding area are located between said top substrate surface area and said bottom substrate surface area.

113. The arrangement for energy conditioning of claim 112, further comprising:

an integrated circuit chip having a plurality of integrated circuits;

wherein said second electrode is electrically coupled to a first integrated circuit of said plurality of integrated circuits;

wherein said sixth electrode is electrically coupled to a second integrated circuit of said plurality of integrated circuits; and

wherein said eighth electrode is electrically coupled to a third integrated circuit of said plurality of integrated circuits.

114. The arrangement for energy conditioning of claim 113, wherein said integrated circuit chip is coupled to said substrate.

115. The arrangement for energy conditioning of claim 114, wherein said integrated circuit chip is energized.

116. The arrangement for energy conditioning of claim 111, wherein said top first electrode superposed shielding area, said bottom first electrode superposed shielding area, said superposed first layer section, said second electrode superposed area, said superposed second layer section, said top third electrode superposed shielding area, said bottom third electrode superposed shielding area, said superposed third layer section, said fourth electrode superposed area, said superposed fourth layer section, said top fifth electrode superposed shielding area and said bottom fifth electrode superposed shielding area together form a three- dimensional energy conditioner.

117. The arrangement for energy conditioning of claim 116, further comprising:

a die including a plurality of integrated circuits;

a substrate including a top substrate surface area and a bottom substrate surface area;

wherein said die is coupled to said top substrate surface area; and

wherein said three-dimensional energy conditioner is embedded within said substrate.

118. The arrangement for energy conditioning of claim 117, wherein said second electrode is electrically coupled to a first integrated circuit of said plurality of integrated circuits of said die;

wherein said sixth electrode is electrically coupled to a second integrated circuit of said plurality of integrated circuits of said die; and

wherein said eighth electrode is electrically coupled to a third integrated circuit of said plurality of integrated circuits of said die.

119. The arrangement for energy conditioning of claim 116, further comprising:

a die including a plurality of integrated circuits;

wherein said second electrode is electrically coupled to a first integrated circuit of said plurality of integrated circuits;

wherein said sixth electrode is electrically coupled to a second integrated circuit of said plurality of integrated circuits; and

wherein said eighth electrode is electrically coupled to a third integrated circuit of said plurality of integrated circuits.

120. The arrangement for energy conditioning of claim 117, wherein said bottom third electrode superposed shielding area is operable for providing a voltage reference for energy utilizing said top fourth electrode superposed area when said arrangement for energy conditioning is energized.

121. The arrangement for energy conditioning of claim 120, wherein said die is energized.

122. An arrangement for energy conditioning comprising:

a first electrode that includes a first electrode area shielding section, and wherein said first electrode area shielding section comprises a superposed top first electrode surface area and a superposed bottom first electrode surface area;

a second electrode comprising a second electrode surface area, and wherein said second electrode surface area includes a second electrode superposed area and a second electrode non-superposed area, and wherein said second electrode superposed area comprises a top second electrode superposed area and a bottom second electrode superposed area;

a third electrode that includes a third electrode area shielding section, and wherein said third electrode area shielding section comprises a superposed top third electrode surface area and a superposed bottom third electrode surface area;

a fourth electrode comprising a fourth electrode surface area, and wherein said fourth electrode surface area includes a fourth electrode superposed area and a fourth electrode non-superposed area, and wherein said fourth electrode superposed area comprises a top fourth electrode superposed area and a bottom fourth electrode superposed area;

a fifth electrode that includes a fifth electrode area shielding section, and wherein said fifth electrode area shielding section comprises a superposed top fifth electrode surface area and a superposed bottom fifth electrode surface area;

wherein said first electrode is electrically coupled to at least said third electrode and wherein said third electrode is electrically coupled to at least said fifth electrode;

wherein said first electrode, said third electrode and said fifth electrode are electrically isolated from said second electrode and said fourth electrode, and wherein said second electrode and said fourth electrode are electrically isolated from one another;

wherein said bottom second electrode superposed area and said bottom fourth electrode superposed area are superposed with one another;

wherein said bottom second electrode superposed area and said top fourth electrode superposed area are shielded from one another by said superposed bottom third electrode surface area.

123. The arrangement for energy conditioning of claim 122, further comprising:

a substrate;

a die including a plurality of integrated circuits;

wherein said die is coupled to said substrate; and

wherein said second electrode is electrically coupled to one integrated circuit of said plurality of integrated circuits of said die.

124. The arrangement for energy conditioning of claim 122, further comprising:

a substrate including a top substrate surface area and a bottom substrate surface area;

a die including a plurality of integrated circuits;

wherein said die is coupled to said top substrate surface area;

wherein said second electrode is electrically coupled to one integrated circuit of said plurality of integrated circuits of said die; and

wherein said superposed top first electrode surface area, said superposed bottom first electrode surface area, said second electrode superposed area, said superposed top third electrode surface area, said superposed bottom third electrode surface area, said fourth electrode superposed area, said superposed top fifth electrode surface area and said superposed bottom fifth electrode surface area are located between said top substrate surface area and said bottom substrate surface area.

125. The arrangement for energy conditioning of claim 123, wherein said top second electrode superposed area and said top fourth electrode superposed area are superposed with one another.

126. The arrangement for energy conditioning of claim 124, wherein said top second electrode superposed area and said top fourth electrode superposed area are superposed with one another.

127. An energy conditioning pathway arrangement comprising:

a first energy pathway comprising a first energy pathway area shielding section comprising at least a superposed top first energy pathway surface area and a superposed bottom first energy pathway surface area;

a second energy pathway comprising a second energy pathway surface area, and wherein said second energy pathway surface area includes a second energy pathway superposed area and a second energy pathway non-superposed area, and wherein said second energy pathway superposed area comprises a top second energy pathway superposed area and a bottom second energy pathway superposed area;

a third energy pathway comprising a third energy pathway area shielding section comprising at least a superposed top third energy pathway surface area and a superposed bottom third energy pathway surface area;

a fourth energy pathway comprising a fourth energy pathway surface area, and wherein said fourth energy pathway surface area includes a fourth energy pathway superposed area and a fourth energy pathway non-superposed area, and wherein said fourth energy pathway superposed area comprises a top fourth energy pathway superposed area and a bottom fourth energy pathway superposed area;

a fifth energy pathway comprising a fifth energy pathway area shielding section comprising at least a superposed top fifth energy pathway surface area and a superposed bottom fifth energy pathway surface area;

wherein said first energy pathway is electrically coupled to at least said third energy pathway, and wherein said third energy pathway is electrically coupled to at least said fifth energy pathway;

wherein said third energy pathway is at least electrically isolated from said second energy pathway and said fourth energy pathway, and wherein said second energy pathway and said fourth energy pathway are electrically isolated from one another;

wherein said first energy pathway area shielding section and said fifth energy pathway area shielding section sandwich said bottom second energy pathway superposed area and said bottom fourth energy pathway superposed area; and

wherein said bottom second energy pathway superposed area and said bottom fourth energy pathway superposed area are superposed with one another.

128. The energy conditioning pathway arrangement of claim 127, wherein said top second energy pathway superposed area and said top fourth energy pathway superposed area are superposed with one another.

129. A die comprising the energy conditioning pathway arrangement of claim 127.

130. A die comprising the energy conditioning pathway arrangement of claim 128.

131. A microprocessor package comprising:

a first, second, third, fourth and a fifth electrode, and a substrate;

wherein said substrate comprises a top substrate surface area and a bottom substrate surface area;

wherein said first electrode comprises a first electrode surface area;

wherein said second electrode comprises a second electrode surface area, and wherein said second electrode surface area includes a second electrode superposed area and a second electrode non-superposed area, and wherein said second electrode superposed area comprises a top second electrode superposed area and a bottom second electrode superposed area;

wherein said third electrode comprises a third electrode surface area that includes a top third electrode superposed shielding area and a bottom third electrode superposed shielding area;

wherein said fourth electrode comprises a fourth electrode surface area, and wherein said fourth electrode surface area includes a fourth electrode superposed area and a fourth electrode non-superposed area, and wherein said fourth electrode superposed area comprises a top fourth electrode superposed area and a bottom fourth electrode superposed area;

wherein said fifth electrode comprises a fifth electrode surface area;

wherein said first electrode is electrically coupled to at least said third electrode, and wherein said third electrode is electrically coupled to at least said fifth electrode;

wherein said third electrode is electrically isolated from said second and fourth electrodes;

wherein said bottom second electrode superposed area and said bottom fourth electrode superposed area are superposed with one another;

wherein said second electrode superposed area is located above said third electrode surface area, and wherein said fourth electrode superposed area is located below said third electrode surface area such that said second electrode superposed area and said fourth electrode superposed area are shielded from one another by said third electrode shielding area;

a first layer of material including a superposed first layer section that comprises a top first layer section surface area and a bottom first layer section surface area that are superposed with one another;

a second layer of material including a superposed second layer section that comprises a top second layer section surface area and a bottom second layer section surface area that are superposed with one another;

a third layer of material including a superposed third layer section that comprises a top third layer section surface area and a bottom third layer section surface area that are superposed with one another;

a fourth layer of material including a superposed fourth layer section that comprises a top fourth layer section surface area and a bottom fourth layer section surface area that are superposed with one another;

wherein said first electrode surface area includes a top first electrode superposed shielding area and a bottom first electrode superposed shielding area;

wherein said fifth electrode surface area includes a fifth electrode shielding area that comprises a top fifth electrode superposed shielding area and a bottom fifth electrode superposed shielding area;

wherein said bottom first electrode superposed shielding area is spaced apart from said top second electrode superposed area by said superposed first layer section;

wherein said bottom second electrode superposed area is spaced apart from said top third electrode superposed shielding area by said superposed second layer section;

wherein said bottom third electrode superposed shielding area is spaced apart from said top fourth electrode superposed area by said superposed third layer section;

wherein said bottom fourth electrode superposed area is spaced apart from said top fifth electrode superposed shielding area by said superposed fourth layer section;

wherein said superposed first layer section, said bottom second electrode superposed area, said superposed second layer section, said top and bottom third electrode superposed shielding areas, said superposed third layer section, said bottom fourth electrode superposed area, said superposed fourth layer section and said top fifth electrode superposed shielding area are superposed;

a die, wherein said die comprises;

a first, second, third, fourth and fifth energy pathway;

wherein said first energy pathway comprises a first energy pathway area shielding section comprising at least a superposed top first energy pathway surface area and a superposed bottom first energy pathway surface area;

wherein said second energy pathway comprises a second energy pathway surface area, and wherein said second energy pathway surface area includes a second energy pathway superposed area and a second energy pathway non-superposed area, and wherein said second energy pathway superposed area comprises a top second energy pathway superposed area and a bottom second energy pathway superposed area;

wherein said third energy pathway comprises a third energy pathway area shielding section comprising at least a superposed top third energy pathway surface area and a superposed bottom third energy pathway surface area;

wherein said fourth energy pathway comprises a fourth energy pathway surface area, and wherein said fourth energy pathway surface area includes a fourth energy pathway superposed area and a fourth energy pathway non-superposed area, and wherein said fourth energy pathway superposed area comprises a top fourth energy pathway superposed area and a bottom fourth energy pathway superposed area;

wherein said fifth energy pathway comprises a fifth energy pathway area shielding section comprising at least a superposed top fifth energy pathway surface area and a superposed bottom fifth energy pathway surface area;

wherein said first energy pathway is electrically coupled to at least said third energy pathway, and wherein said third energy pathway is electrically coupled to at least said fifth energy pathway;

wherein said third energy pathway is electrically isolated from said second and fourth energy pathway, and wherein said second energy pathway and said fourth energy pathway are electrically isolated from one another;

wherein said top second energy pathway superposed area and said top fourth energy pathway superposed area are superposed with one another; and

wherein said first energy pathway area shielding section and said fifth energy pathway area shielding section sandwich said bottom second energy pathway superposed area and said bottom fourth energy pathway superposed area such that said bottom second energy pathway superposed area and said bottom fourth energy pathway superposed area are superposed with one another; and

wherein said die is coupled to said substrate.

132. The microprocessor package of claim 131, wherein said second electrode is electrically coupled to said second energy pathway.