Electrostatic energy field power generating system

Claim 2

An energy conversion system including a pair of electrodes maintained electrostatically charged at substantially equal potentials of opposite polarity, stator means mounted in operatively spaced relation to said electrodes for inducement therein of charges of opposite polarity through electric fields established by said equal potentials, power driven rotor means continuously disposed within said electric fields for receiving charged induced by said electric fields, means electrically connecting said rotor means to the stator means for equalizing of said induced charges therebetween, field linkage control means for movably shielding the stator means from the electric fields during rotation of the rotor means and output circuit means operatively connected to the stator means for extracting therefrom an operating voltage in response to movement of said shielding of the stator means.

Claim 3

The system as defined in claim 1 wherein said stator means includes a pair of axially spaced stator discs respectively linked electrostatically to the electrodes by said eletric fields, the rotor means including a pair of rotor discs respectively disposed axially between the electrodes and the stator discs.

Claim 4

The system as defined in claim 2 wherein said field linkage control means comprises angularly spaced segments on the rotor discs having charged faces shielding portions of the stator discs from the electrodes.

Claim 5

The system as defined in claim 3 wherein each of the stator discs includes angularly spaced surface portions confronting the angularly spaced rotor segments and dielectric means between said surface portions for confining the induced charges thereto, the surface portions of the stator discs and the charged faces of the rotor segments being unequal in area.

Claim 6

An energy conversion system including a pair of electrodes electrostatically charged to substantially equal potentials of opposite polarity, stator means mounted in operatively spaced relation to said electrodes for inducement therein of charges of opposite polarity through electric fields established by said equal potentials, said stator means including a pair of axially spaced stator discs respectively linked to the electrodes by said electric fields, power driven rotor means continuously disposed within said electric fields for receiving induced charges thereon, means electrically connecting said rotor means to the stator means for transfer of said induced charges therebetween, said rotor means including a pair of rotor discs respectively disposed axially between the electrodes and the stator discs and field linkage control means for variably shielding the stator means from the electric fields during rotation of the rotor means, said field linkage control means comprising angularly spaced segments on the rotor discs having charged faces shielding portions of the stator discs from the electrodes, each of the stator discs including angularly spaced surface portions confronting the angularly spaced rotor segments and dielectric means between said surface portions for confining the induced charges thereto, the surface portions of the stator disc having areas twice that of the areas of the charged faces of the rotor segments and output circuit means operatively connected to the stator means for establishing an operating voltage in response to said variation in the shielding of the stator means by the rotor means.

Claim 7

An energy conversion system including a pair of electrodes electrostatically charged to substantially equal potentials of opposite polarity, stator means mounted in operatively spaced relation to said electrodes for inducement therein of charges of opposite polarity through electric fields established by said equal potentials, said stator means including a pair of axially spaced stator discs respectively linked to the electrodes by said electric fields, power driven rotor means continuously disposed within said electric fields for receiving induced charges thereon, means electrically connecting said rotor means to the stator means for transfer of said induced charges therebetween, said rotor means including a pair of rotor discs respectively disposed axially between the electrodes and the stator discs and field linkage control means for variably shielding the stator means from the electric fields during rotation of the rotor means, said field linkage control means comprising angularly spaced segments on the rotor discs having charged faces shielding portions of the stator discs from the electrodes, each of the stator discs including angularly spaced surface portions confronting the angularly spaced rotor segments and dielectric means between said surface portions for confining the induced charges thereto, the surface portions of the stator disc having areas twice that of the areas of the charged faces of the rotor segments and output circuit means operatively connected to the stator means for establishing an operating voltage in response to said variation in the shielding of the stator means by the rotor means.

Claim 8

The system as defined in claim 5 including a power shaft assembly on which the rotors are mounted for simultaneous rotation, said electrical connecting means being formed by electrically conductive sections of said shaft assembly.

Claim 9

The system as defined in claim 6 wherein the charged faces of the rotor segments on one of the rotors is formed by dielectric material within which the induced charges of negative polarity are confined in stable ion form.

Claim 10

The system as defined in claim 7 wherein said output circuit means includes a pair of dc voltage terminals, a capacitive network, and current blocking diode means coupling the network to the terminals and to each of the surface portions of the stator discs for multiplying current conducted between the stator discs while reducing potentials therebetween to a value equal to the operating voltage across the dc voltage terminals.

Claim 11

The system as defined in claim 2 wherein each of the stator discs includes angularly spaced surface portions confronting the rotor and dielectric means between said surface portions for confining the induced charges thereto.

Claim 12

The system as defined in claim 9 wherein said output circuit means includes a pair of dc voltage terminals, a capacitive network, and current blocking diode means coupling the network to the terminals and to each of the surface portions of the stator discs for multiplying current conducted between the stator discs while reducing potentials therebetween to the operating voltage across the terminals.

Claim 13

The system as defined in claim 1 including a power shaft assembly on which the rotors are mounted for simultaneous rotation, said electrical connecting means being formed by electrically conductive sections of said shaft assembly.

Claim 14

The system as defined in claim 3 wherein the charged faces of the rotor segments on one of the rotors is formed by dielectric material within which the induced charges of negative polarity are confined in stable ion form.

Claim 15

The system as defined in claim 1 wherein said stator means and said rotor means respectively have faces confronting each of the electrodes, and dielectric surface means coating those of the confronting faces on which the charges of negative polarity are induced and maintained in a stable ion form for preventing eddy currents and charge leakage.

Claim 16

The system as defined in claim 1 wherein the stator means and the rotor means have faces continuously exposed to said electric fields on which the charges of negative polarity are induced, and stabilizer means for preventing leakage of the induced charges through said faces.

Claim 17

The system as defined in claim 14 wherein said stabilizer means comprises dielectric material on said faces maintaining the negative charges therein in stable ion form.

Claim 18

In an energy conversion system having an electrode of one polarity maintained at an electrostatic potential, a stator and a rotor disposed within an electric field established between the electrode and the stator by said potential on the electrode, means mounting the rotor for rotation continuously within the electric field and means electrically interconnecting the rotor and the stator for equalizing electrostatic charges established thereon opposite in polarity to said one polarity, the rotor having charged surface means partially shielding the stator from the electric field for producing an electric potential on the stator in response to rotation of the rotor causing movement of the charges established by the unshielded electric field.

Claim 19

In an energy conversion system having an electrode of one polarity maintained at an electrostatic potential, a stator and a rotor disposed within an electric field established between the electrode and the stator by said potential on the electrode, means mounting the rotor for rotation continuously within the electric field and means electrically interconnecting the rotor and the stator for equalizing electrostatic charges established thereon opposite in polarity to said one polarity, the rotor having charged surface means partially shielding the stator from the electric field for producing an electric potential on the stator in response to rotation of the rotor causing movement of the charges established by the unshielded electric field.

Claim 20

The system as defined in claim 16 wherein the stator includes means for confining electrostatic charges established to surfaces of greater total area than that of the charged surface means of the rotor.

Claim 21

The system as defined in claim 1 wherein said stator means is mounted in fixed parallel spaced relation to the electrodes and said rotor means is rotatable about a rotational axis perpendicular to said electrodes.

Claim 22

In an electrostatic generator having a pair of axially spaced electrodes with electric fields therebetween establishing corresponding capacitances, a power driven rotor and means for electrically interconnecting the rotor with one of the electrodes of said pair during rotation of the rotor, the improvement residing in means fixedly mounting both of the electrodes of said pair, said electric fields being established and maintained by means respectively applying charge producing potentials of substantially equal and opposite polarity to the other of the electrodes of said pair for cancellation of forces exerted by said electric fields on the rotor, means mounted by the rotor for partial shielding of said one of the electrodes from said electric fields and means responsive to rotation of the rotor for extracting an output voltage generated on said one of the electrodes by movement of said partial shielding thereof during maintenance of the corresponding capacitances established by the electric fields.

Claim 23

In an electrostatic generator having a pair of axially spaced electrodes with electric fields therebetween establishing corresponding capacitances, a power driven rotor and means for electrically interconnecting the rotor with one of the electrodes of said pair during rotation of the rotor, the improvement residing in means fixedly mounting both of the electrodes of said pair, said electric fields being established and maintained by means respectively applying charge producing potentials of substantially equal and opposite polarity to the other of the electrodes of said pair for cancellation of forces exerted by said electric fields on the rotor, means mounted by the rotor for partial shielding of said one of the electrodes from said electric fields and means responsive to rotation of the rotor for extracting an output voltage generated on said one of the electrodes by movement of said partial shielding thereof during maintenance of the corresponding capacitances established by the electric fields.