Electrical Generation Device

Abstract

In a preferred embodiment of the present invention, an electric generating device accelerates a plurality of spaced magnetic disks inside a circular chamber. The exterior wall of the circular chamber includes a coil winding, so as the plurality of spaced magnetic discs move within the chamber, an electric current induces in the coil winding. A two-piston mechanical pump drives a gas into traveling compartments located between a pair of the spaced magnetic discs. By forcing fluid into the compartment, the discs are forced to travel within the circular chamber. A set of one-way flow valves ensures that the fluid is uni-directional and directs flow to cause the movement of the discs. A small portion of the generated electricity is returned to the system to energize a pair of helper motors. The electric helper motors, each couple to a respective cam. Rotation of the cams drives the piston pump.

1 . An electrical generating device comprising:
 an annular ring assembly comprising a fluid intake means and a fluid outflow means, the fluid outflow means being in fluid communication with   a first piston assembly comprising a first variable-volume interior chamber, the first chamber having a first inflow check valve and a second outflow check valve, a first piston adapted to reciprocate within the first variable-volume interior chamber and a first surface of the first piston forming one wall of the first interior chamber, a first connecting rod having a first end coupled to a second surface of the first piston;   a reservoir tank being in fluid communication with the first piston outflow check valve to form a fluid path from the first piston interior chamber to the reservoir tank; and   a second piston assembly comprising a second variable-volume interior chamber, the second chamber having a second inflow check valve in fluid communication with the reservoir tank, a second piston adapted to reciprocate within the second variable-volume interior chamber and a first surface of the second piston forming one wall of the second interior chamber, a second connecting rod having a first end coupled to a second surface of the second piston and a second outflow check valve being in fluid communication with the fluid intake means of the annular ring whereby a fluid flow path forms from the second piston interior chamber to the annular ring assembly.   
     
     
         2 . The device of  claim 1  wherein the annular ring assembly further comprises:
 a annular housing comprising a sidewall having an interior portion forming a hollow channel having a generally circular cross-section and an exterior face supporting a continuous coil-winding about the sidewall's circumference, the sidewall being magnetically inert and being an electrical insulator, and the hollow interior channel forming a sealed and continuous chamber having a generally circular arrangement wherein no end-walls are required to create the sealed continuous chamber,   a traveling compartment disposed in the annular housing and adapted to slideably travel within the hollow channel; the traveling compartment having a first magnetic plate assembly forming one endwall, the first magnetic plate assembly having a generally circular cross section and interface inside the hollow channel of the annular housing, the first magnet plate assembly comprising a coin-shaped first magnet having an annular grove adapted to couple to a sealing-ring member, the sealing ring member having a diameter greater than the coin-shaped first magnet, and a second magnetic plate assembly forming a second endwall; and wherein   the fluid intake means further comprises an intake one-way check valve adapted to create a fluid flow path to the traveling compartment and the fluid outflow means further comprises an outflow one-way check valve adapted to channel fluid from the traveling compartment.   
     
     
         3 . The device of  claim 2  wherein:
 the first piston assembly further comprises a link-rod coupled to the first connecting rod at a second end of the rod and a first cam being motivated by a first motor; whereby rotation of a shaft of the first motor causes the first cam to correspondingly rotate;   the link-rod further coupled to the second piston assembly at a second end of the second connecting rod; whereby upward displacement of the first connecting rod results in a reciprocal but opposite downward displacement of the second connecting rod and the link-rod further adapted to engage the first cam; and   the second piston assembly further comprises a second cam being motivated by a second motor, the second cam adapted to engage the link-rod whereby rotation of a shaft of the second motor causes the second cam to correspondingly rotate.   
     
     
         4 . The device of  claim 2  further comprising:
 A feedback lead adapted to provide current from the coil winding to the first motor; and   a connector for supplying a portion of the current from the coil winding to an external device.   
     
     
         5 . An annular ring assembly for a self-sustaining electric-generating device comprising:
 an outer coil-winding assembly comprising at least one continuously wound conductive wire wrapped around a circular-cross-section insulation member arranged to form a ring;   a means for receiving an input of an inert gas comprising a fluid intake directional valve in fluid communication with a traveling compartment,   the traveling compartment disposed internal to the outer coil winding and the traveling compartment comprising a generally cylindrical side wall coupled to a generally circular end wall consisting a ferrous material whereby the inert gas being directed through the fluid intake directional valve exerts a pressure sufficient to cause the end wall to displace within the annular ring assembly and wherein the arrangement of the end wall relative to the outer coil winding induces a current in the coil winding.   
     
     
         6 . The device of  claim 5  further comprising:
 a fluid outflow means, the fluid outflow means adapted to enable a one-way flow of the inert gas from the traveling compartment external to the coil winding.   
     
     
         7 . The device of  claim 5  further comprising:
 means for extracting a current from the coil winding.   
     
     
         8 . The device of  claim 5  further comprising:
 a first piston assembly comprising a first variable-volume interior chamber, the first chamber having a first inflow check valve and a second outflow check valve, a first piston adapted to reciprocate within the first variable-volume interior chamber and a first surface of the first piston forming one wall of the first interior chamber, a first connecting rod having a first end coupled to a second surface of the first piston;   a reservoir tank being in fluid communication with the first piston outflow check valve to form a fluid path from the first piston interior chamber to the reservoir tank; and   a second piston assembly comprising a second variable-volume interior chamber, the second chamber having a second inflow check valve in fluid communication with the reservoir tank, a second piston adapted to reciprocate within the second variable-volume interior chamber and a first surface of the second piston forming one wall of the second interior chamber, a second connecting rod having a first end coupled to a second surface of the second piston and a second outflow check valve being in fluid communication with the fluid intake means of the annular ring whereby a fluid flow path forms from the second piston interior chamber to the annular ring assembly.   
     
     
         9 . The device of  claim 8  further comprising:
 a motor coupled to a first cam, the first cam coupled to the first piston assembly and the motor drawing current from the coil winding whereby activation of the motor causes the first cam to rotate;   the first cam rotably coupled to the first piston assembly whereby rotation of the cam causes linear motion of the piston assembly via the first connecting rod.