MACHINE GENERATING CENTRIFUGAL FORCES FROM EFFECTIVE ELLIPTIC TRAJECTORY

• US 20190323587A1
• Filed: 06/23/2017
• Published: 10/24/2019
• Est. Priority Date: 06/23/2016
• Status: Active Grant

• Current Assignee: Jamel Jebari
• Original Assignee: Jamel Jebari
• Inventors: JEBARI, Jamel
• Granted Patent: US 11,359,705 B2
• Time in Patent Office: Days
• CPC Class Codes: F03G 3/00 Other motors, e.g. gravity or inertia motors
• CPC Class Codes: F03G 7/10 Alleged perpetua mobilia using hydrostatic thrust F03B17/04
• CPC Class Codes: F03G 7/107 using an unbalance for increasing torque or saving energy
• CPC Class Codes: F16C 3/18 Eccentric-shafts
• CPC Class Codes: F16C 3/22 Cranks; Eccentrics constructional features of crank-pins F16C11/02
• CPC Class Codes: F16F 15/14 using masses freely rotating with the system, i.e. uninvolved in transmitting driveline torque, e.g. rotative dynamic dampers compensation of inertia forces F16F15/22; weights for balancing rotating bodies F16F15/32
• CPC Class Codes: F16H 21/34 with two or more connecting-rods to each crank or eccentric
• CPC Class Codes: F16H 33/20 for interconversion, based essentially on inertia, of rotary motion and reciprocating or oscillating motion for converting into a linear propulsion force, i.e. inertia motors F03G3/00

Abstract

A generator (100) and/or machine (110) generating mechanical energy and functioning on the principle of exploitation of an energy allowing the existence of centrifugal forces (Fc) on masses (120) being displaced in rotation, into an effective elliptic trajectory (150), about a respective shaft (128) freely rotatably mounted on a plate (122) itself freely rotatably mounted on a main shaft (202) freely rotatably mounted on a fixed chassis (140). The centrifugal forces generated by the masses (120) transmit a rotational oscillating movement of the plate (122) transferred by a mechanical energy transmission mechanism into a continuous rotation movement to an output torque mechanism freely mounted on the main shaft (202).

Claims

1. A generator of centrifugal forces from an effective elliptic trajectory (100) for mounting on a chassis (140) having a main shaft (202) freely rotatably mounted thereon and a mechanical energy transmission mechanism mounted thereon, said generator (100) comprising.

a rotating shaft (128) for freely rotatably mounting on a rotating shaft plate (122) of the mechanical energy transmission mechanism freely rotatably mounted on the main shaft (202), said rotating shaft (128) fixedly connecting to and driving in rotation at least one mass (120) there about, said rotating shaft plate (122) and the mechanical energy transmission mechanism being adapted to be displaced in rotational oscillation by and carry at least a portion of a centrifugal force (Fc) generated by said at least one mass (120) when said at least one mass (120) is displaced in rotation about said rotating shaft (128) to transmit said at least a portion of a centrifugal force (Fc) to a torque output mechanism (278);

and

a shaft driving system (182) selectively driving the rotating shaft (128) and the at least one mass (120) connected thereto.

2. A machine generating mechanical energy by exploiting the generation of centrifugal forces (110) comprising:

a chassis (140) having a main shaft (202) freely rotatably mounted thereon;

a mechanical energy transmission mechanism mounted thereon; and

at least one generator (100) as defined in claim 1 freely rotatably mounting on the rotating shaft plate (122) of the mechanical energy transmission mechanism, said rotating shaft (128) fixedly connecting to and driving in rotation at least one mass (120) there about, said rotating shaft plate (122) and the mechanical energy transmission mechanism being displaced in rotational oscillation by and carry at least a portion of a centrifugal force (Fc) generated by said at least one mass (120) when said at least one mass (120) is displaced in rotation about said rotating shaft (128) to transmit said at least a portion of a centrifugal force (Fc) to a torque output mechanism (278), said at least one generator (100) including a shaft driving system (182) selectively driving the rotating shaft (128) and the at least one mass (120) connected thereto;

wherein said at least a portion of the centrifugal force (Fc) being available at said torque output mechanism (278) for transmission as an output energy from said machine generating mechanical energy by exploiting the generation of centrifugal forces (110).

3. A machine (110) as defined in claim 2, including a pair of rotating shaft plates (122, 122′

) freely rotatably mounted onto the main shaft (202) and operatively connecting to the torque output mechanism (278) via a sprocket/gear assembly including first (274) and second (275) sprocket shafts operatively connected to respective first (272) and second (273) wheel sprockets and respective first (276) and second (277) gears of the mechanical energy transmission mechanism, each one of said pair of rotating shaft plates (122, 122′

) operatively engaging said sprocket/gear assembly when rotating in opposite directions and being operatively disengaged therefrom when rotating in a respective reverse direction, each one of said first sprocket shafts (274) operatively connecting on one said pair of rotating shaft plates (122, 122′

) including a respective rotational direction reversing member (279), each one of said at least one generator (100) mounting onto a respective one said pair of rotating shaft plates (122, 122′

) being selectively angularly oriented relative to one another so as to allow said pair of rotating shaft plates (122, 122′

) to have a rotational oscillating movement about the main shaft (202).

4. A machine (110) as defined in claim 2, further including a plate circumferential biasing mechanism hingeably connecting to the chassis (140) and the rotating shaft plate (122) and biasing the rotating shaft plate (122) into a neutral rotational position of the rotational oscillating movement thereof relative to the chassis (140).

5. A machine (110) as defined in claim 4, wherein the plate circumferential biasing mechanism is at least one tension coil spring (280) laying within a plane substantially parallel to a plane of the rotating shaft plate (122).

6. A machine (110) as defined in claim 3, wherein each plate of said pair of rotating shaft plates (122, 122′

) including a pair of axially spaced apart united plates receiving respective ones of said at least one mass (120) therebetween.

7. A machine (110) as defined in claim 2, wherein the shaft driving system includes at least one electric motor (182) connecting to and selectively driving the at least one rotating shaft (128).

8. A machine (110) as defined in claim 7, including a plurality of generators (100) with respective said rotating shaft (128), and wherein the shaft driving system includes a plurality of electric motors (182), each one of said plurality of electric motors (182) connecting to and selectively driving a respective said rotating shaft (128).

9. A machine (110) as defined in claim 3, wherein the first (274) and second (275) sprocket shafts, with the respective first (272) and second (273) wheel sprockets and the respective first (276) and second (277) gears of the sprocket/gear assembly of the mechanical energy transmission mechanism being mounted into a circumferentially alternating fashion around the lower plates (122, 122′

).

10. A machine (110) as defined in claim 9, wherein the first (274) and second (275) sprocket shafts, with the respective first (272) and second (273) wheel sprockets and the respective first (276) and second (277) gears of the sprocket/gear assembly of the mechanical energy transmission mechanism being substantially circumferentially equally spaced apart from one another around the lower plates (122, 122′

).

11. A machine (110) as defined in claim 3, further including a plate circumferential biasing mechanism hingeably connecting to the chassis (140) and the rotating shaft plate (122) and biasing the rotating shaft plate (122) into a neutral rotational position of the rotational oscillating movement thereof relative to the chassis (140).

12. A machine (110) as defined in claim 11, wherein the plate circumferential biasing mechanism is at least one tension coil spring (280) laying within a plane substantially parallel to a plane of the rotating shaft plate (122).

13. A machine (110) as defined in claim 3, wherein the shaft driving system includes at least one electric motor (182) connecting to and selectively driving the at least one rotating shaft (128).

14. A machine (110) as defined in claim 13, including a plurality of generators (100) with respective said rotating shaft (128), and wherein the shaft driving system includes a plurality of electric motors (182), each one of said plurality of electric motors (182) connecting to and selectively driving a respective said rotating shaft (128).

15. A machine (110) as defined in claim 4, wherein the shaft driving system includes at least one electric motor (182) connecting to and selectively driving the at least one rotating shaft (128).

16. A machine (110) as defined in claim 15, including a plurality of generators (100) with respective said rotating shaft (128), and wherein the shaft driving system includes a plurality of electric motors (182), each one of said plurality of electric motors (182) connecting to and selectively driving a respective said rotating shaft (128).

17. A machine (110) as defined in claim 5, wherein the shaft driving system includes at least one electric motor (182) connecting to and selectively driving the at least one rotating shaft (128), and wherein the machine (110) includes a plurality of generators (100) with respective said rotating shaft (128), and wherein the shaft driving system includes a plurality of electric motors (182), each one of said plurality of electric motors (182) connecting to and selectively driving a respective said rotating shaft (128).

18. A machine (110) as defined in claim 6, wherein the shaft driving system includes at least one electric motor (182) connecting to and selectively driving the at least one rotating shaft (128), and wherein the machine (110) includes a plurality of generators (100) with respective said rotating shaft (128), and wherein the shaft driving system includes a plurality of electric motors (182), each one of said plurality of electric motors (182) connecting to and selectively driving a respective said rotating shaft (128).

19. A machine (110) as defined in claim 6, wherein the first (274) and second (275) sprocket shafts, with the respective first (272) and second (273) wheel sprockets and the respective first (276) and second (277) gears of the sprocket/gear assembly of the mechanical energy transmission mechanism being mounted into a circumferentially alternating fashion around the lower plates (122, 122′

).

20. A machine (110) as defined in claim 19, wherein the first (274) and second (275) sprocket shafts, with the respective first (272) and second (273) wheel sprockets and the respective first (276) and second (277) gears of the sprocket/gear assembly of the mechanical energy transmission mechanism being substantially circumferentially equally spaced apart from one another around the lower plates (122, 122′

).