Method of controlling gaseous fluid pump

1. A method of controlling a fluid pump, the pump comprising a plurality of oscillating pistons that travel along a central axis of a piston sleeve, the method comprising:

providing the plurality of oscillating pistons of similar mass within the piston sleeve wherein each piston of the plurality of oscillating pistons has a first end and a second end and at least one magnet, and wherein the piston sleeve has a first end with a first permanent magnet and a second end with a second permanent magnet along the central axis of the piston sleeve;

repelling one of the plurality of oscillating pistons from the first end of the piston sleeve by facing like poles of the one of the plurality of oscillating pistons and the first permanent magnet;

repelling another of the plurality of oscillating pistons from the second end of the piston sleeve by facing like poles of the other of the plurality of oscillating pistons and the second permanent magnet;

positioning adjacent pistons to be 180 degrees apart in phase oscillations;

providing an electric coil for each piston;

determining the position of adjacent pistons; and

adjusting the current of the electric coils for the pistons to maintain the 180 degree difference in phase between oscillations of adjacent pistons.

2. The method of claim 1 wherein each of the plurality of oscillating pistons comprises:

a graphite body; and

at least one permanent magnet.

3. The method of claim 1 wherein the piston sleeve is constructed from a low electrical conductivity material.

4. The method of claim 1 wherein determining the position of each of the plurality of oscillating pistons is done with an electronic comparator sensor.

5. The method of claim 1 wherein determining the position of each of the plurality of oscillating pistons is done by monitoring pressure differences between a pump input and output ports.

6. An apparatus for pumping and compressing fluids, comprising:

a cylinder body comprising a central axis and an inner surface that creates an inner volume with the cylinder body having a first magnet at a first end and a second magnet at a second end;

a first piston and a second piston of similar mass within the cylinder body with the first and second pistons being able to oscillate along the central axis, the first piston having a third magnet that repels the first magnet at a first end of the cylinder body and the second piston having a fourth magnet that repels the second magnet at a second end of the cylinder body; and

wherein the first and second pistons are driven by magnetic forces generated by electrical currents to oscillate the first and second pistons with a similar stroke length while maintaining a 180 degree difference between the oscillations of the first and second pistons.

7. The apparatus of claim 6 wherein the electrical currents are carried by two electrical coils, each coil corresponding to one of the two pistons.

8. The apparatus of claim 6 wherein the two electrical coils are connected in parallel to each other such that if the first piston becomes more than 180 degrees ahead of the second piston, the second piston will receive more current to increase the speed of the second piston to maintain the 180 degree difference between the oscillations of the first and second pistons.

9. A method of pumping and compressing a fluid comprising: oscillating a piston between a first end of a cylinder and a second end of the cylinder using oscillating magnetic forces, the piston having a first set of magnets at a center to interact with an electric coil creating the oscillating magnetic forces wherein the oscillating of the piston between the first end of the cylinder and the second end of the cylinder is configured to pump and compress the fluid, the piston having a second magnet at a first end of the piston and a third magnet at a second end of the piston; repelling the first end of the piston from the first end of the cylinder by facing like poles of the second magnet with like poles of a fourth magnet at the first end of the cylinder; repelling the second end of the piston from the second end of the cylinder by facing like poles of the second magnet with like poles of a fifth magnet at the second end of the cylinder; determining the position of the piston; and adjusting the speed at which the piston oscillates by adjusting the oscillating magnetic forces.

10. The method of claim 9 , wherein the cylinder is separated into two equal-length halves with a gap therebetween, the first set of magnets oscillating within the gap.

11. The method of claim 10 , wherein the two equal-length halves are not within a flux path formed by the electric coil to allow the cylinder to be constructed from a material that does not have low electrical conductivity.

12. The method of claim 9 , wherein determining the position of the piston is done by an electronic comparator sensor.

13. The method of claim 9 , wherein determining the position of the piston is done by monitoring pressure differences between a pump input and a pump output in the cylinder.

14. The method of claim 9 , further comprising:

adjusting the speed of the piston depending on the position of the piston within the cylinder by adjusting the current within the electric coil with the current being proportional to the speed of the piston.