Magnetically Integrated Current Reactor

• US 20110080055A1
• Filed: 11/17/2010
• Published: 04/07/2011
• Est. Priority Date: 06/30/2009
• Status: Active Grant

• Current Assignee: Verde Power Supply
• Original Assignee: Verde Power Supply
• Inventors: Connor, Michael James, Amelio, Gilbert, Dellacona, Richard
• Granted Patent: US 8,178,998 B2
• Time in Patent Office: Days
• US Class Current: 307/104
• CPC Class Codes: G05F 1/335 on different cores

Abstract

A system and method for delivering electrical power-on-demand to at least one load circuit wherein the system operates primarily with reactive power. The method includes inductively coupling power from a source in a primary circuit to one or more load circuits. The system is arranged to store magnetic energy in a core surrounded by planar coils positioned in parallel. The magnetic circuit is toroidal, symmetrical and circuitous. Magnetic energy is transferred between loads through the system. Back currents from the loads are able to be converted to magnetic field energy contributing to the total of stored energy available to the loads. Since the combined energy held in the system is primarily reactive, internal energy losses are small.

Claims

1. A low loss power delivery system comprising:

mutually parallel, adjacently positioned, and coaxially aligned planar elements including;

a first planar electrically conductive coil interconnected with an electrical source;

a second planar electrically conductive coil interconnected with a load;

the first and second coils each having a centrally positioned, magnetically permeable core;

the coils supported within a magnetic flux conduit, the cores and flux conduit enabled as a toroidal flux circuit.

2. A low loss power delivery system comprising:

mutually parallel, adjacently positioned, and coaxially aligned planar elements including;

a first electrically conductive coil interconnected with an electrical source;

a pair of second electrically conductive coils, each one of the second coils interconnected with a separate load;

the first and second coils each having a centrally positioned, magnetically permeable core;

the first coil spaced between the pair of second coils;

the first and second coils supported within a magnetic flux conduit, the cores and flux conduit enabled as a toroidal flux circuit.

3. The system of claim 2 wherein, each of the coils comprises two concentrically aligned adjacent coil portions in mutual electrical series interconnection.

4. The system of claim 3 wherein, the two coil portions are wound to generate mutually additive magnetic flux when carrying an electric current.

5. The system of claim 2 wherein the permeable cores of the first and second coils are axially spaced apart.

6. A low loss power delivery system comprising:

a planar primary electrical coil having an electrical insulator sandwiched between two planar, mutually parallel, coaxially and adjacently aligned, electrically conductive, serially connected coil portions, the coil portions wound so that winding turns of the two coil portions are adjacently positioned and additive magnetic flux is generated when an electrical current flows through the two coil portions; and

a means for delivering power from the primary electrical coil to a load.

7. The system of claim 6 wherein the primary electrical coil is formed by a subtractive fabrication process.

8. The system of claim 6 wherein the means for delivering power comprises a pair of secondary electrical coils coaxially aligned with, and each equally spaced from, the primary electrical coil, each of the primary and secondary coils having a centrally positioned mutually spaced apart magnetically permeable core, the coils enclosed within and supported by a flux conduit whereby the permeable cores and the flux conduit provides a toroidal flux path.

9. A low loss power delivery system comprising:

a closed magnetic circuit having a coaxial arrangement of spaced apart, mutually parallel, magnetically permeable cores, the cores positioned within a flux conduit forming a toroidal flux path.

10. The system of claim 9 further comprising a primary electrical coil assembly positioned between a pair of secondary electrical coil assemblies, wherein each of the electrical coil assemblies has a planar electrical insulator peripheral to, and co-planar with one of the permeable cores, each said insulator positioned between two planar, mutually parallel, coaxially and adjacently aligned, electrically conductive, serially interconnected coil portions, the coil portions wound so that an axially oriented additive magnetic field is generated when an electrical current flows through the coil portions, the axially aligned cores and the flux conduit arranged as a toroidal magnetic path.

11. The system of claim 9 wherein the coils are formed by a subtractive fabrication process.

12. A method for delivering electrical power-on-demand with low loss to a pair of independent loads, comprising:

inductively coupling a first input electrical energy in a primary planar electromagnetic energy converter, to a pair of secondary planar electromagnetic energy converters;

delivering a first output electrical energy from one of the secondary planar electromagnetic energy converters to one of the pair of independent loads and a second output electrical energy from another of the secondary planar electromagnetic energy converters to another of the independent loads;

storing electromagnetic energy within a toroidal magnetic circuit common to both the primary and the secondary planar electromagnetic energy converters;

delivering portions of the stored electromagnetic energy, as a third output electrical energy, to each of the independent loads as independently demanded by said loads.

13. The method of claim 12 further comprising storing the electromagnetic energy primarily within a central axial portion of the toroidal magnetic circuit.

14. The method of claim 13 further comprising storing the electromagnetic energy within and between spaced apart permeable cores.

15. The method of claim 12 further comprising delivering electrical energy from the independent loads to the toroidal magnetic circuit.

16. The method of claim 12 further comprising producing a linear magnetic flux field axially aligned with the primary and secondary planar electromagnetic energy converters.

17. A method for delivering electrical power on demand with low loss to independent loads, comprising:

inductively coupling input electrical energy to planar electromagnetic energy converters;

delivering output electrical energy from the energy converters to the independent loads;

storing electromagnetic energy within a toroidal magnetic circuit common to the energy converters; and

delivering portions of the stored electromagnetic energy, as independently demanded, to the independent loads.

18. The method of claim 17 further comprising storing the electromagnetic energy within a central axial portion of the toroidal magnetic circuit and establishing a magnetic flux field within the central axial portion of the toroidal magnetic circuit using permeable cores in a linear, mutually parallel and spaced apart arrangement of the permeable cores.

19. The method of claim 17 further comprising delivering electrical energy to the secondary electromagnetic energy converters, the independent loads.

20. The method of claim 17 further comprising producing a linear magnetic flux field axially aligned with the planar electromagnetic energy converters.