Multi-hydram turbine system

1. A hydropower system, comprising:

at least a first and a second hydram system, each said hydram system comprising a drive pipe, a T-pipe, an impulse valve, a delivery valve, a pressure vessel, and a release valve;

said T-pipe fluidly connecting the drive pipe to both the impulse valve and the delivery valve; and;

said impulse valve being operational to close sharply during a flow of water from said T-pipe;

said delivery valve being a one-way check valve operational to permit water into said pressure vessel; and

said release valve controlling release of water from said pressure vessel; and

a siphon fluidly connecting a waste pipe of the first hydram system to the drive pipe of the second hydram system.

2. The hydropower system of claim 1 , further comprising:

said release valve opening at a release pressure and closing at a lower pressure; and

said release valve comprising a servo-controlled valve.

3. The hydropower system of claim 1 , further comprising:

a first water turbine and a first generator coupled to said first hydram system; and

said release valve fluidly coupled to an input of said water turbine.

4. The hydropower system of claim 1 , further comprising:

a first water turbine and a first generator coupled to said first water turbine; and

an input of said first water turbine fluidly coupled to the first hydram system.

5. The hydropower system of claim 4 , further comprising:

a second water turbine and a second generator coupled to said second water turbine; and

the second hydram system fluidly coupled to an input of said second water turbine.

6. The hydropower system of claim 1 , further comprising:

the waste pipe fluidly connected to the impulse valve; and

an overflow pressure vessel, comprising an overflow delivery valve, and an overflow release valve;

said waste pipe fluidly connected to said overflow delivery valve.

7. The hydropower system of claim 1 , further comprising:

an overflow pressure vessel;

the overflow pressure vessel fluidly connecting an output of the first hydram system to an input of the second hydram system.

8. The hydropower system of claim 7 , further comprising:

a first water turbine and a first generator coupled to said first water turbine; and

the first hydram system fluidly coupled to an input of said first water turbine.

9. The hydropower system of claim 8 , further comprising:

a second water turbine and a second generator coupled to said second water turbine; and

the second hydram system fluidly coupled to an input of said second water turbine.

10. The hydropower system of claim 1 , further comprising:

an overflow pressure vessel being between and, fluidly connecting, the waste pipe of the first hydram system and the siphon.

11. The hydropower system of claim 1 , further comprising:

a third hydram system; and

at least a first water turbine and a second water turbine;

the delivery pipe of the first hydram system coupled to an input of said first water turbine;

the drive pipe of the third hydram system coupled to an output of said first water turbine; and

the delivery pipe of the second hydram system coupled to an input of said second water turbine; and

the delivery pipe of the third hydram system coupled to the input of said second water turbine; and

an overflow pressure vessel;

the overflow pressure vessel coupled to the first hydram system and to the drive pipe of the third hydram system.

12. The hydropower system of claim 1 , further comprising:

a source pipe;

the source pipe connecting the drive pipe for the first hydram system to a low head water source.

13. The hydropower system of claim 1 , further comprising:

a main siphon assembly;

the main siphon assembly comprising an intake;

the main siphon assembly connecting the drive pipe for the first hydram system to a water source via the intake.

14. A hydropower system comprising:

at least a first and a second hydram system, each said hydram system comprising a drive pipe, a T-pipe, an impulse valve, a delivery valve, a pressure vessel, and a release valve;

said T-pipe fluidly connecting the drive pipe to both the impulse valve and the delivery valve; and;

said impulse valve being operational to close sharply during a flow of water from said T-pipe;

said delivery valve being a one-way check valve operational to permit water into said pressure vessel; and

said release valve controlling release of water from said pressure vessel;

a first water turbine and a first generator coupled to said first water turbine;

an input of said first water turbine fluidly coupled to the first hydram system;

a second water turbine and a second generator coupled to said second water turbine;

the second hydram system fluidly coupled to an input of said second water turbine; and

the second hydram system fluidly coupled to an output of said first water turbine.

15. A hydropower system comprising:

at least one hydram system, said at least one hydram system comprising a drive pipe, a T-pipe, an impulse valve, a delivery valve, a pressure vessel, and a release valve;

said T-pipe fluidly connecting the drive pipe to both the impulse valve and the delivery valve; and;

said impulse valve being operational to close sharply during a flow of water from said T-pipe;

said delivery valve being a one-way check valve operational to permit water into said pressure vessel; and

said release valve controlling release of water from said pressure vessel; and

a first shipping container assembly enclosing the at least one hydram system;

the first shipping container assembly comprising a feedwater assembly;

the feedwater assembly connected to the drive pipe for the at least one hydram system.

16. The hydropower system of claim 15 , further comprising:

a second shipping container assembly; and

a coupling assembly connecting the first and second shipping container assemblies;

the coupling assembly comprising fluid couplings.

17. The hydropower system of claim 15 , further comprising:

a second shipping container assembly;

a first water turbine;

a first generator coupled to the first water turbine;

a second hydram system; and

a second water turbine coupled to the second hydram system; and

a second generator coupled to the second water turbine; and

the first shipping container assembly further enclosing the first water turbine and the first generator; and

the second shipping container assembly enclosing the second hydram system, the second water turbine, and the second generator.

18. A hydropower system for providing pressurized water from a supply of flowing water, comprising:

at least a first, a second, and a third hydram system, each having a drive pipe, and each having a delivery pipe and a waste pipe;

a first and a second water turbine, each having a fluid inlet and fluid outlet; and

the delivery pipe of the first hydram system fluidly connected to the fluid inlet of the first turbine, and the waste pipe of the first hydram system fluidly connected to the drive pipe of the second hydram system;

the first water turbine fluidly connected between the delivery pipe of the first hydram system and the drive pipe of the third hydram system; and

the fluid inlet of the second water turbine fluidly connected to the delivery pipe of the second hydram system.

19. The hydropower system of claim 18 , further comprising:

the fluid inlet of the second water turbine fluidly connected to the delivery pipe of the third hydram system.

20. The hydropower system of claim 19 , further comprising:

the fluid inlet of the second water turbine fluidly connected to the waste pipes of the second and third hydram systems.

21. The hydropower system of claim 18 , further comprising:

an overflow pressure vessel having an overflow inlet and overflow outlet;

said overflow pressure vessel fluidly connected between the waste pipe of the first hydram system and the drive pipe of the second hydram system.

22. A method of generating hydropower using a source of water and the hydropower system of claim 1 , comprising:

fluidly coupling the drive pipe of the first hydram system to a source of water;

the first hydram system further comprising a delivery pipe; and

operating the impulse valve to create a pressurizing flow;

permitting the pressurizing flow into the pressure vessel from the drive pipe by opening the delivery valve;

releasing a pressurized flow from the pressure vessel to the delivery pipe by opening a release valve; and

delivering turbine water flow from the delivery pipe to an inlet of a turbine-generator system.

23. The method of claim 22 , further comprising:

the drive pipe fluidly connected between the source of water and the impulse valve;

the delivery valve fluidly connected between the impulse valve and the pressure vessel; and

the delivery pipe fluidly coupled to the inlet of the turbine-generator system.

24. The method of claim 22 :

the step of creating a pressurizing flow comprising sharply closing the impulse valve.

25. The method of claim 22 :

the step of opening the release valve comprising operating an automatic servo control at a release pressure; and

further comprising closing the release valve at a lower pressure.

26. The method of claim 22 , further comprising;

at least a first and second water turbine;

delivering turbine water flow from the first hydram system to the first water turbine; and

delivering turbine water flow from the second hydram system to the second water turbine.

27. The method of claim 26 , further comprising;

discharging spent water from the first water turbine to the drive pipe of a third hydram system.

28. The method of claim 26 , further comprising;

receiving waste water from the first hydram system in an overflow pressure vessel; and

delivering pressurized water from the overflow pressure vessel to the second hydram system via the siphon.

29. The method of claim 26 ;

the step of delivering pressurized water to the second hydram system comprising siphoning.

30. The method of claim 22 , further comprising;

a third hydram system; and

at least a first and second water turbine;

delivering turbine water flow from the first hydram system to the first water turbine;

discharging spent water from the first water turbine to the drive pipe of the third hydram system;

delivering turbine water flow from the second hydram system to the second water turbine;

receiving waste water from the first hydram system in an overflow pressure vessel; and

delivering pressurized water from the overflow pressure vessel to the second hydram system.