PHYSICAL ENERGY-CONVERTING ROTOR, ROTATING METHOD OF THE SAME AND GENERATING SET USING THE SAME

• US 20100253091A1
• Filed: 04/02/2009
• Published: 10/07/2010
• Est. Priority Date: 04/02/2009
• Status: Active Grant

• Current Assignee: Rosace International Co., Ltd.
• Original Assignee: Rosace International Co., Ltd.
• Inventors: TSENG, Kuang-Tai, Lin, Chih-Che, Chen, Kuo-Kang
• Granted Patent: US 8,053,913 B2
• Time in Patent Office: Days
• US Class Current: 290/1.R
• CPC Class Codes: F03G 7/10 Alleged perpetua mobilia using hydrostatic thrust F03B17/04
• CPC Class Codes: H02K 53/00 Alleged dynamo-electric perpetua mobilia
• CPC Class Codes: Y10T 74/2119 Structural detail, e.g., material, configuration, superconductor, discs, laminated, etc.

Abstract

A physical energy-converting rotor has a rotor body and multiple weights. When the rotor body is rotated, an inner virtual orbit and an outer virtual orbit are formed and the weights are rotated. The weights are moved back and forth between the inner and outer virtual orbits to form non-balances to keep the rotor body rotating. The physical energy-converting rotor may operate alone, or may cooperate with non-pollution generators such as wind generators and water generators to enhance power-generating effect.

Claims

1. A physical energy-converting rotor comprising:

a rotor body; and

multiple weights being connected to the rotor body and being rotated with the rotor body, wherein,

when the rotor body is rotated, an inner virtual orbit and an outer virtual orbit are defined, and the weights are moved back and forth in the inner and outer virtual orbits by a force action-at-distance to form non-balances.

2. The rotor as claimed in claim 1 further comprising multiple hollow columns being mounted in the rotor body, wherein each weight is mounted movably in a corresponding column.

3. The rotor as claimed in claim 2, wherein each column has a buffering pad being mounted therein.

4. The rotor as claimed in claim 2, wherein each column is parallel with a corresponding radius of the rotor body.

5. The rotor as claimed in claim 2, wherein each column is perpendicular with a corresponding radius of the rotor body.

6. The rotor as claimed in claim 4 further comprising an actuating magnet being mounted outside the rotor body.

7. The rotor as claimed in claim 5 further comprising an actuating magnet being mounted outside the rotor body.

8. The rotor as claimed in claim 4, wherein

each column has a magnetic buffer being mounted at a distal end thereof;

the weights are magnets that are attracted by the magnetic buffers; and

at least one actuating magnet is mounted outside the rotor body to form repulsion with the weights.

9. The rotor as claimed in claim 1 further comprising

multiple supports extending out from the rotor body;

multiple hollow columns respectively corresponding to the supports, being attached securely to distal ends of the supports and forming a virtual rotating orbit, and each column has a magnetic buffer being mounted at a distal end thereof;

each weight is mounted movably in a corresponding column; and

a stationary magnet is mounted outside the virtual rotating orbit of the columns and forms repulsion with the magnetic buffers.

10. The rotor as claimed in claim 9, wherein each column is parallel with the corresponding support.

11. The rotor as claimed in claim 9, wherein each column is perpendicular with the corresponding support.

12. The rotor as claimed in claim 1 further comprising multiple solid columns protruding out of the rotor body, wherein

each weight is magnet and is mounted slidably around a corresponding column;

and

at least one actuating magnet is mounted outside the rotor body.

13. The rotor as claimed in claim 12, wherein

each column has

a connecting column protruding out from the rotor body;

and

a mounting column being connected to the connecting column and being perpendicular with a corresponding radius of the rotor body; and

each weight is mounted slidably around the mounting column of the corresponding column.

14. The rotor as claimed in claim 1 further comprising multiple solid columns protruding out of the rotor body, wherein

each weight is magnet and is mounted slidably around a corresponding column;

and

a magnetic arc is mounted outside the columns, corresponds to part of a periphery of the rotor body and has multiple pushing magnets being mounted therein.

15. The rotor as claimed in claim 12 further comprising multiple springs, wherein each spring is mounted around a corresponding column and abuts a corresponding weight.

16. The rotor as claimed in claim 13 further comprising multiple springs, wherein each spring is mounted around the mounting column of a corresponding column and abuts a corresponding weight.

17. The rotor as claimed in claim 14 further comprising multiple springs, wherein each spring is mounted around a corresponding column and abuts a corresponding weight.

18. The rotor as claimed in claim 1 further comprising multiple solid columns protruding out of the rotor body, wherein

each weight is an arc being connected pivotally to a corresponding column and has at least one inner magnet being mounted therein;

and

a magnetic arc is mounted outside the weights.

19. The rotor as claimed in claim 18, wherein the magnetic arc corresponds to part of a periphery of the rotor body.

20. The rotor as claimed in claim 1, wherein

each weight is an arc being connected pivotally to the rotor body and has at least one inner magnet and a ballast being mounted therein;

a magnetic ring is mounted outside the weights and has two gaps; and

two actuating plugs are detachably mounted in the gaps.

21. A generating set with at least one physical energy-converting rotor as claimed in claim 1 comprising a generator being connected to the at least one physical energy-converting rotor.

22. The generating set as claimed in claim 21 further comprising a speed-change gear group being connected to the physical energy-converting rotor and the generator.

23. The generating set as claimed in claim 22 further comprising a motor being connected to the physical energy-converting rotor to provide initial power.

24. A rotating method for a physical energy-converting rotor comprising acts of:

providing a rotor body;

providing multiple weights being connected to the rotor body;

providing the rotor body an initial power to start rotating;

forming an inner virtual orbit and an outer virtual orbit by the rotating rotor body, wherein

when the weights are rotated with the rotor body, the weights are moved back and forth in the inner and outer virtual orbits by a force action-at-distance to form non-balances.