Hydraulically powered electric generators

1. A method of operating hydraulically powered electric generators comprising opposing stators spaced apart by an armature, the method comprising:

positioning the armature against a first stator;

establishing a conduction path through a coil of the first stator;

hydraulically moving the armature away from the first stator to capture electrical energy resulting from a collapse in magnetic field in the first stator and the armature;

magnetically holding the armature against the first stator for a specific time period;

coupling the coil of the first stator to an electrical energy utilization or storage device having a first polarity; and

after the specific time period, disconnecting the electrical energy utilization or storage device, and then hydraulically moving the armature away from the first stator to initiate an opening of an air gap between the first stator and the armature;

wherein a first switching device coupled to the coil of the first stator is forward biased to provide the conduction path through the coil of the first stator.

2. The method of claim 1 , further comprising before a maximum air gap between the first stator and the armature is achieved, reconnecting the electrical energy utilization or storage device, wherein the electrical energy utilization or storage device has a second polarity opposite of the first polarity.

3. The method of claim 2 , wherein the electrical energy utilization or storage device is coupled to the coil of the first stator through a second switching device to pass electrical current to charge the electrical energy utilization or storage device.

4. The method of claim 3 , further comprising when the maximum air gap between the first stator and the armature is achieved, switching out the first switching device to allow the magnetic field to collapse, the energy in the magnetic field being captured through the second switching device to charge the electrical energy utilization or storage device.

5. The method of claim 4 , further comprising injecting a forward conduction voltage drop of the second switching device charging the electrical energy utilization or storage device.

6. The method of claim 1 , wherein the electrical current in the coil of the first stator and the flux yielding the flux density linking the first stator and the armature rise quickly during the specific time period.

7. The method of claim 1 , wherein the coil of the first stator has a shady effect on the magnetic field in the first stator and the armature, and wherein a circulating current is generated in the coil to resist and slow the collapse of the magnetic field.

8. The method of claim 1 , wherein the armature is moved away from the first stator to a second stator.

9. The method of claim 1 , wherein the electrical energy utilization or storage device is a battery.

10. The method of claim 1 , wherein position of the armature is controlled by hydraulic pistons comprised in the hydraulically powered electric generators, each hydraulic piston coupled to a source of high pressure hydraulic fluid and a low pressure reservoir or vent through a three-way valve.

11. The method of claim 1 , further comprising coupling the coil of the first stator to the electrical energy utilization or storage device through a second switching device, the electrical energy utilization or storage device having a second polarity opposite of the first polarity.

12. The method of claim 11 , further comprising after the specific time period, switching out the first switching device, and then hydraulically moving the armature away from the first stator to initiate an opening of an air gap between the first stator and the armature, whereby less energy is temporarily stored in the air gap.

13. The method of claim 1 , further comprising reconnecting the electrical energy utilization or storage device and a second switching device, wherein the coil of the first stator is coupled to the electrical energy utilization or storage device through the second switching device, whereby energy is recovered by the electrical energy utilization or storage device through the second switching device.

14. The method of claim 1 , wherein the armature is hydraulically controlled using hemp, water, or ammonia (NH3).

15. A method of operating hydraulically powered electric generators comprising opposing stators spaced apart by a hydraulically controlled armature and an air gap, each of the opposing stators having at least one coil, the method comprising:

positioning the hydraulically controlled armature against one of the stators;

establishing electrical current in a coil of the stator to establish a magnetic field in the stator and the armature, during which a first diode coupled to the coil is reverse biased;

establishing a conduction path through the coil, wherein the first diode is forward biased to provide the conduction path through the coil; and

hydraulically forcing the armature away from the stator to capture electrical energy resulting from a collapse in magnetic field in the stator and the armature.

16. The method of claim 15 , further comprising:

magnetically holding the armature against the stator for a specific time period; and

shortly after the specific time period, disconnecting a battery connected to the coil and then hydraulically forcing the armature away from the stator to initiate a rapid opening of the air gap, wherein the battery includes a first polarity.

17. The method of claim 16 , further comprising before a maximum air gap is achieved, reconnecting the battery with a second polarity opposite of the first polarity, wherein the battery is connected through a second diode to pass electrical current to charge the battery and to block electrical current tending to discharge the battery.

18. The method of claim 17 , further comprising when the maximum air gap is achieved, disconnecting the first diode to allow the magnetic field to collapse, wherein energy in the magnetic field is captured through the second diode to charge the battery.

19. The method of claim 15 , further comprising:

magnetically holding the armature against the stator for a specific time period; and

prior to hydraulically forcing the armature away from the stator, switching out the first diode to reduce a shading effect of the coil.

20. The method of claim 15 , wherein the armature is hydraulically controlled using hemp, water, or ammonia (NH3).

21. A method of operating hydraulically powered electric generators comprising opposing stators spaced apart by a hydraulically controlled armature and an air gap, each of the opposing stators having at least one coil, the method comprising:

causing the hydraulically controlled armature to position against one of the stators;

establishing a conduction path through a coil of the stator, wherein the coil is connected to a battery;

disconnecting the battery from the coil after the conduction path is established for a first specific time period;

after a second specific time period, reconnecting the battery and a diode wherein the battery is connected to the coil through the diode; and then hydraulically moving the armature away from the stator to capture electrical energy resulting from a collapse in magnetic field in the stator and the armature.

22. The method of claim 21 , wherein the armature is hydraulically controlled using hemp, water, or ammonia (NH3).

23. A method of operating hydraulically powered electric generators comprising opposing stators spaced apart by a hydraulically controlled armature and an air gap, each of the opposing stators having at least one coil, the method comprising:

causing the hydraulically controlled armature to position against one of the stators;

establishing a conduction path through a coil of the stator for a specific time period, the coil being connected to a battery through a diode, wherein the diode is reverse biased; and then

hydraulically moving the armature away from the stator to initiate an opening of the air gap and to capture electrical energy resulting from a collapse in magnetic field in the stator and the armature.

24. The method of claim 23 , wherein the armature is hydraulically controlled using hemp, water, or ammonia (NH3).