Air-driven generator

1. A method of operating a n air-driven generator, the method comprising:

inducing an upward movement of a column of working fluid contained in a buoyancy conduit by injecting air into the working fluid at a lower portion of the buoyancy conduit using an air injection system, the injected air displacing a volume of the working fluid in the buoyancy conduit;

receiving a flow of the working fluid in an upper chamber disposed at an upper end of the buoyancy conduit, the upper chamber affecting the flow of the working fluid to:

remove injected air from the working fluid in the upper chamber, and

direct the working fluid into an upper end of an elongate gravitational distribution conduit disposed at a bottom of the upper chamber;

allowing acceleration of a downward flow of working fluid in the elongate gravitational distribution from the upper end of the elongate gravitational distribution conduit to a lower end of the elongate gravitational distribution conduit under the force of gravity;

directing the accelerated working fluid into a fluid turbine system interposed between the lower end of the gravitational distribution conduit and a lower end of the buoyancy conduit; and

adding heat to the working fluid via a heat exchanger interposed between the lower end of the gravitational distribution conduit and the lower end of each buoyancy conduit.

2. The method of claim 1 , further comprising directing the flow of the working fluid from the fluid turbine system to the buoyancy conduit.

3. The method of claim 1 , wherein injecting air into the working fluid includes injecting air from a source of compressed air coupled to the air injection system.

4. The method of claim 1 , wherein the source of compressed air comprises a system of an alternating series of mechanical compressors and heat pumps.

5. The method of claim 1 , wherein the upper chamber affecting the flow of the working fluid to remove injected air from the working fluid in the upper chamber includes inducing rotational movement of the working fluid around the upper chamber.

6. The method of claim 5 , wherein inducing rotational movement of the working fluid around the upper chamber includes introducing the working fluid to the upper chamber in approximately equal non-radial angles with respect to a central longitudinal axis of the upper chamber such that working fluid exhausted from the upper ends of the buoyancy conduits will tend to follow an initial rotary pattern within the upper chamber.

7. The method of claim 5 , wherein the upper chamber affecting the flow of the working fluid includes reducing the rotational movement of the working fluid using one or more baffles.

8. The method of claim 5 , wherein the upper chamber affecting the flow of the working fluid includes inducing laminar flow in the working fluid entering the upper end of the elongate gravitational distribution conduit.

9. The method of claim 1 , comprising controlling the adding of the heat to the working fluid to maintain the fluid turbine system at a steady state.

10. The method of claim 9 , wherein the heat exchanger transfer the heat to the working fluid from a source of compressed air coupled to the air injection system.

11. The method of claim 10 , comprising compressing air using a system of alternating mechanical compressors and heat pumps, the heat pumps providing the heat to the heat exchangers.

12. The method of claim 1 , wherein directing the accelerated working fluid into the fluid turbine system includes:

extracting energy from the accelerated working fluid with a fluid turbine of the fluid turbine system.

13. The method of claim 12 , comprising converting the extracted energy to available electrical power.

14. The method of claim 1 , comprising venting the air removed from the upper chamber and venting air received in the upper end of the buoyancy conduit.

15. The method of claim 14 , comprising extracting energy from the vented air.

16. The method of claim 15 , wherein the energy is extracted using an Organic Rankin Cycle Generator.

17. The method of claim 1 , comprising: maintaining the upward movement of the column of working fluid contained in the buoyancy conduit via the injecting of the air into the working fluid at the lower portion of the buoyancy conduit.

18. The method of claim 17 , comprising: maintaining the download flow of working fluid in the elongate gravitational distribution by maintaining the upward movement of the column of working fluid.

19. The method of claim 1 , wherein the wherein the working fluid has a specific gravity of greater than one.

20. The method of claim 19 , wherein the working fluid has a specific gravity at least two.

21. The method of claim 1 , wherein inducing the upward movement of the column of working fluid contained in the buoyancy conduit includes creating, via the injecting of air into the working fluid, a weight differential between working fluid contained in the elongate gravitational distribution conduit and the working fluid contained in the buoyancy conduit, the weight differential inducing motive flow of the working fluid from the lower end of the elongate gravitational distribution conduit into the lower end of the buoyancy conduit.

22. A method of operating an air-driven generator, the method comprising:

inducing an upward movement of a column of working fluid contained in a buoyancy conduit by injecting air into the working fluid at a lower portion of the buoyancy conduit using an air injection system, the injected air displacing a volume of the working fluid in the buoyancy conduit;

receiving a flow of the working fluid in an upper chamber disposed at an upper end of the buoyancy conduit, the upper chamber affecting the flow of the working fluid to:

remove injected air from the working fluid in the upper chamber, and

direct the working fluid into an upper end of an elongate gravitational distribution conduit disposed at a bottom of the upper chamber;

allowing acceleration of a downward flow of working fluid in the elongate gravitational distribution from the upper end of the elongate gravitational distribution conduit to a lower end of the elongate gravitational distribution conduit under the force of gravity; and

directing the accelerated working fluid into a fluid turbine system interposed between the lower end of the gravitational distribution conduit and a lower end of the buoyancy conduit,

wherein the source of compressed air comprises a system of an alternating series of mechanical compressors and heat pumps.

23. The method of claim 22 , wherein the upper chamber affecting the flow of the working fluid to remove injected air from the working fluid in the upper chamber includes inducing rotational movement of the working fluid around the upper chamber, the inducing comprising introducing the working fluid to the upper chamber in approximately equal non-radial angles with respect to a central longitudinal axis of the upper chamber such that working fluid exhausted from the upper ends of the buoyancy conduits will tend to follow an initial rotary pattern within the upper chamber.

24. The method of claim 22 , wherein inducing the upward movement of the column of working fluid contained in the buoyancy conduit includes creating, via the injecting of air into the working fluid, a weight differential between working fluid contained in the elongate gravitational distribution conduit and the working fluid contained in the buoyancy conduit, the weight differential inducing motive flow of the working fluid from the lower end of the elongate gravitational distribution conduit into the lower end of the buoyancy conduit.

25. The method of claim 24 , wherein the source of compressed air comprises a system of an alternating series of mechanical compressors and heat pumps.

26. The method of claim 24 , wherein inducing the upward movement of the column of working fluid contained in the buoyancy conduit includes creating, via the injecting of air into the working fluid, a weight differential between working fluid contained in the elongate gravitational distribution conduit and the working fluid contained in the buoyancy conduit, the weight differential inducing motive flow of the working fluid from the lower end of the elongate gravitational distribution conduit into the lower end of the buoyancy conduit.

27. A method of operating an air-driven generator, the method comprising:

inducing an upward movement of a column of working fluid contained in a buoyancy conduit by injecting air into the working fluid at a lower portion of the buoyancy conduit using an air injection system, the injected air displacing a volume of the working fluid in the buoyancy conduit;

receiving a flow of the working fluid in an upper chamber disposed at an upper end of the buoyancy conduit, the upper chamber affecting the flow of the working fluid to:

remove injected air from the working fluid in the upper chamber by, and

direct the working fluid into an upper end of an elongate gravitational distribution conduit disposed at a bottom of the upper chamber;

allowing acceleration of a downward flow of working fluid in the elongate gravitational distribution from the upper end of the elongate gravitational distribution conduit to a lower end of the elongate gravitational distribution conduit under the force of gravity; and

directing the accelerated working fluid into a fluid turbine system interposed between the lower end of the gravitational distribution conduit and a lower end of the buoyancy conduit,

wherein the upper chamber affecting the flow of the working fluid to remove injected air from the working fluid in the upper chamber includes inducing rotational movement of the working fluid around the upper chamber, the inducing comprising introducing the working fluid to the upper chamber in approximately equal non-radial angles with respect to a central longitudinal axis of the upper chamber such that working fluid exhausted from the upper ends of the buoyancy conduits will tend to follow an initial rotary pattern within the upper chamber.