Gravity driven hydro-electric systems

Abstract

A gravity driven hydroelectric system, whereby hydroelectric power is developed from potential energy of dammed water driving a water turbine assembly. The hydroelectric power extracted from the water depends on volume and on a difference in height between a source and an outflow of the water. A penstock delivers the water to the water turbine assembly. The penstock has a housing secured by frame assemblies to a structure. The housing has electromagnetic coils that produce electricity from a rotation of turbine blades having magnets.

Claims

1. A gravity driven hydroelectric system, comprising: A) a first housing comprising a sidewall having first and second ends, extending through said first housing is a shaft; B) a rotor housing assembly comprising a first hole to accommodate said shaft; C) a field winding starter assembly comprising second and third holes to accommodate said shaft, said field winding starter assembly further comprises a field winding starter having a first laminated steel rotor; D) a permanent magnet rotor assembly comprising fourth and fifth holes to accommodate said shaft, said permanent magnet rotor assembly further comprises a permanent magnet rotor; E) a laminated steel rotor assembly comprising second and third laminated steel rotors fixed upon said shaft and elongated permanent magnets, said elongated permanent magnets extend through said second and third laminated steel rotors; F) a generator assembly comprising sixth hole and an armature having wire coils; G) a water turbine assembly fixedly mounted onto said shaft, thereby rotating together, said water turbine assembly comprises a second housing having seventh and eighth holes to accommodate said shaft, said water turbine assembly further comprises turbine blades having magnets thereon; and H) an electrical system comprising wires that connect to terminals, whereby hydroelectric power is developed from potential energy of dammed water driving said water turbine assembly, said hydroelectric power extracted from said water depends on volume and on a difference in height between a source and an outflow of said water.

2. The gravity driven hydroelectric system set forth in claim 1, further comprising a penstock to deliver said water to said water turbine assembly, said penstock comprising a third housing secured by frame assemblies to a structure, said third housing comprises electromagnetic coils that also produce electricity from a rotation of said turbine blades having said magnets.

3. The gravity driven hydroelectric system set forth in claim 1, further characterized in that said turbine blades having said magnets thereon rotate over electro magnetic coils mounted from said sidewall.

4. The gravity driven hydroelectric system set forth in claim 1, further characterized in that said turbine blades having said magnets thereon rotate over electro magnetic coils mounted and protruding from said sidewall.

5. The gravity driven hydroelectric system set forth in claim 1, further characterized in that said rotor housing assembly, said field winding starter assembly, said permanent magnet rotor assembly, said laminated steel rotor assembly, and said generator assembly are contained within said first housing.

6. The gravity driven hydroelectric system set forth in claim 1, further characterized in that said rotor housing assembly is adjacent to said field winding starter assembly.

7. The gravity driven hydroelectric system set forth in claim 6, further characterized in that said field winding starter assembly is positioned in between said rotor housing assembly and said permanent magnet rotor assembly.

8. The gravity driven hydroelectric system set forth in claim 7, further characterized in that said permanent magnet rotor assembly is positioned in between said field winding starter assembly and said laminated steel rotor assembly.

9. The gravity driven hydroelectric system set forth in claim 8, further characterized in that said laminated steel rotor assembly is positioned in between said permanent magnet rotor assembly and said generator assembly.

10. A gravity driven hydroelectric system, consisting of: A) a first housing comprising a sidewall having first and second ends, extending through said first housing is a shaft; B) a rotor housing assembly comprising a first hole to accommodate said shaft; C) a field winding starter assembly comprising second and third holes to accommodate said shaft, said field winding starter assembly further comprises a field winding starter having a first laminated steel rotor; D) a permanent magnet rotor assembly comprising fourth and fifth holes to accommodate said shaft, said permanent magnet rotor assembly further comprises a permanent magnet rotor; E) a laminated steel rotor assembly comprising second and third laminated steel rotors fixed upon said shaft and elongated permanent magnets, said elongated permanent magnets extend through said second and third laminated steel rotors; F) a generator assembly comprising sixth hole and an armature having wire coils; G) a water turbine assembly fixedly mounted onto said shaft, thereby rotating together, said water turbine assembly comprises a second housing having seventh and eighth holes to accommodate said shaft, said water turbine assembly further comprises turbine blades having magnets thereon; and H) an electrical system comprising wires that connect to terminals, whereby hydroelectric power is developed from potential energy of dammed water driving said water turbine assembly, said hydroelectric power extracted from said water depends on volume and on a difference in height between a source and an outflow of said water.

11. The gravity driven hydroelectric system set forth in claim 10, further characterized in that said rotor housing assembly, said field winding starter assembly, said permanent magnet rotor assembly, said laminated steel rotor assembly, and said generator assembly are contained within said first housing, said rotor housing assembly is adjacent to said field winding starter assembly.

12. The gravity driven hydroelectric system set forth in claim 11, further characterized in that said field winding starter assembly is positioned in between said rotor housing assembly and said permanent magnet rotor assembly.

13. The gravity driven hydroelectric system set forth in claim 12, further characterized in that said permanent magnet rotor assembly is positioned in between said field winding starter assembly and said laminated steel rotor assembly.

14. The gravity driven hydroelectric system set forth in claim 13, further characterized in that said laminated steel rotor assembly is positioned in between said permanent magnet rotor assembly and said generator assembly.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) With the above and other related objects in view, the invention consists in the details of construction and combination of parts as will be more fully understood from the following description, when read in conjunction with the accompanying drawings in which:

(2) FIG. 1 represents an isometric view of a gravity driven hydroelectric system.

(3) FIG. 2 is a cutaway perspective view of the gravity driven hydroelectric system seen in FIG. 1.

(4) FIG. 3 is a cutaway side elevation view of the gravity driven hydroelectric system seen in FIG. 1.

(5) FIG. 4 represents an isometric view of an alternate embodiment gravity driven hydroelectric system.

(6) FIG. 5 is a cutaway perspective view of the alternate embodiment gravity driven hydroelectric system seen in FIG. 4.

(7) FIG. 6 is a cutaway side elevation view of the alternate embodiment gravity driven hydroelectric system seen in FIG. 4.

(8) FIG. 7 is a perspective view of the present invention installed as a hydroelectric plant and producing hydroelectric power through the use of the gravitational force of falling or flowing water.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT

(9) Referring now to the drawings, the present invention is a gravity driven hydroelectric system and is generally referred to with numeral 10. It can be observed that it basically includes housing 20, water turbine assembly 120, and electrical system 140.

(10) As seen in FIGS. 1, 2, and 3, housing 20 comprises sidewall 22 having ends 24 and 26. Extending through housing 20, and specifically through ends 24 and 26 is shaft 28. Rotor housing assembly 40 comprises hole 42 to accommodate shaft 28. Field winding starter assembly 50 comprises holes 52 and 54 to accommodate shaft 28. Field winding starter assembly 50 further comprises field winding starter 56 having laminated steel rotor 58. Permanent magnet rotor assembly 70 is fixed upon shaft 28 and comprises holes 72 and 74 to accommodate shaft 28. Permanent magnet rotor assembly 70 further comprises permanent magnet rotor 76. Laminated steel rotor assembly 90 comprises laminated steel rotors 92 and 96 fixed upon shaft 28 and permanent magnets 94 that extend between them. Generator assembly 100 comprises hole 102, and armature 104 having wire coils 106.

(11) Water turbine assembly 120 is fixedly mounted onto shaft 28, thereby rotating together. Water turbine assembly 120 comprises housing 122 having holes 124 and 126 to accommodate shaft 28. Water turbine assembly 120 further comprises turbine blades 128 having magnets 130 thereon that rotate over electro magnetic coils 144. Electrical system 140 comprises wires 142 that connect to terminals 166.

(12) Seen in FIGS. 4, 5, and 6 is an alternate embodiment gravity driven hydroelectric system generally referred to with numeral 10′. Housing 20 comprises sidewall 22 having ends 24 and 26. Extending through housing 20, and specifically through ends 24 and 26 is shaft 28. Rotor housing assembly 40 comprises hole 42 to accommodate shaft 28. Field winding starter assembly 50 comprises holes 52 and 54 to accommodate shaft 28. Field winding starter assembly 50 further comprises field winding starter 56 having laminated steel rotor 58. Permanent magnet rotor assembly 70 is fixed upon shaft 28 and comprises holes 72 and 74 to accommodate shaft 28. Permanent magnet rotor assembly 70 further comprises permanent magnet rotor 76. Laminated steel rotor assembly 90 comprises laminated steel rotors 92 and 96 fixed upon shaft 28 and permanent magnets 94 that extend between them. Generator assembly 100 comprises hole 102, and armature 104 having wire coils 106.

(13) Water turbine assembly 120 is fixedly mounted onto shaft 28, thereby rotating together. Water turbine assembly 120 comprises housing 122 having holes 124 and 126 to accommodate shaft 28. Water turbine assembly 120 further comprises turbine blades 128 having magnets 130 thereon that rotate over electro magnetic coils 146 that are mounted and protruding from sidewall 22. Electrical system 140 comprises wires 142 that connect to terminals 166.

(14) As seen in FIG. 7, present invention 10 develops hydroelectric power from the potential energy of dammed water driving water turbine assemblies 120. The power extracted from the water depends on the volume and on the difference in height between the source and the water's outflow. This height difference is called the head. The amount of potential energy in the water is proportional to the head. Penstock 160 delivers water to water turbine assemblies 120 that are within housings 162 secured by frame assemblies 164 to structure S. Each housing 162 comprises electromagnetic coils that also produce electricity from the rotation of respective turbine blades 128 having magnets 130 thereon. This electricity also connects to terminals 166.

(15) Although not illustrated, it is understood that a pumped-storage method produces electricity to supply high peak demands by moving water between reservoirs at different elevations. At times of low electrical demand, the excess generation capacity is used to pump water into the higher reservoir. When the demand becomes greater, water is released back into the lower reservoir through turbine assemblies 120. Pumped-storage schemes may provide means of large-scale grid energy storage and improve a daily capacity factor of the generation system.

(16) Also, and although not illustrated, it is understood that run-of-the-river hydroelectric stations are those with small or no reservoir capacity, so that the water coming from upstream must be used for generation at that moment through turbine assemblies 120, or must be allowed to bypass a dam.

(17) Also, and although not illustrated, it is understood that a tidal power station makes use of a daily rise and fall of ocean water due to tides. Such sources are predictable, and if conditions permit construction of reservoirs, can also be dispatchable to generate power during high demand periods through turbine assemblies 120.

(18) Also and although not illustrated, it is understood that less common types of hydro schemes use water's kinetic energy or undammed sources such as undershot waterwheels that may flow water to turbine assemblies 120.

(19) The foregoing description conveys the best understanding of the objectives and advantages of the present invention. Different embodiments may be made of the inventive concept of this invention. It is to be understood that all matter disclosed herein is to be interpreted merely as illustrative, and not in a limiting sense.