Electromagnetic device for generating electrical current and methods thereof

An AC current generator comprising:

• a stator comprising an outer shell of non-magnetic material enclosing an evacuated chamber and having a distribution of a plurality of ferromagnets attached to an inner surface of said outer shell;
• a rotor comprising at least one inner core of non-magnetic material located at a stability location within said evacuated chamber and having a distribution of a plurality of diamagnets attached to an outer surface of said inner core, and
• at least one magnetic flux detection unit located within at least one magnetic field generated by at least one group of ferromagnets of said plurality of ferromagnets,
• wherein displacing said rotor from said stability location towards said at least one group of ferromagnets generates a change in magnetic flux in said magnetic field thereby generating an AC current in said at least one magnetic flux detection unit;
• wherein each member of said plurality of diamagnets comprises a disc-shaped diamagnet;
• wherein said at least one inner core of non-magnetic material is selected from the group consisting of aluminium, antimony, copper, gold, lead, magnesium, platinum, silver, tin, titanium, tungsten, vanadium and zinc and/or any combination thereof.

A method for generating an AC current comprising:

• providing a stator comprising an outer shell of non-magnetic material enclosing an evacuated chamber and having a distribution of a plurality of ferromagnets attached to inner surface of said outer shell;
• providing a rotor comprising an at least one inner core of non-magnetic material located at a stability location within said evacuated chamber and having a distribution of a plurality of diamagnets attached to an outer surface of said at least one inner core, and
• providing at least one magnetic flux detection unit located within at least one magnetic field generated by at least one group of ferromagnets of said plurality of ferromagnets,
• displacing said rotor from said stability location towards said at least one group of ferromagnets generates a change in magnetic flux in said magnetic field thereby generating an AC current in said at least one magnetic flux detection unit;
• wherein each member of said plurality of ferromagnets comprises a disc-shaped ferromagnet;
• wherein said outer shell of non-magnetic material is selected from the group consisting of aluminium, antimony, copper, gold, lead, magnesium, platinum, silver, tin, titanium, tungsten, vanadium and zinc and/or any combination thereof.

A method for generating an AC current comprising:

• providing a stator comprising an outer shell of non-magnetic material enclosing an evacuated chamber and having a distribution of a plurality of ferromagnets attached to inner surface of said outer shell;
• providing a rotor comprising an at least one inner core of non-magnetic material located at a stability location within said evacuated chamber and having a distribution of a plurality of diamagnets attached to an outer surface of said at least one inner core, and
• providing at least one magnetic flux detection unit located within at least one magnetic field generated by at least one group of ferromagnets of said plurality of ferromagnets,
• displacing said rotor from said stability location towards said at least one group of ferromagnets generates a change in magnetic flux in said magnetic field thereby generating an AC current in said at least one magnetic flux detection unit;
• wherein each member of said plurality of diamagnets comprises a disc-shaped diamagnet;
• wherein said at least one inner core of non-magnetic material is selected from the group consisting of aluminium, antimony, copper, gold, lead, magnesium, platinum, silver, tin, titanium, tungsten, vanadium and zinc and/or any combination thereof.

An AC current generator comprising:

• a stator comprising an outer shell of non-magnetic material enclosing an evacuated chamber and having a distribution of a plurality of ferromagnets attached to an inner surface of said outer shell;
• a rotor comprising at least one inner core of non-magnetic material located at a stability location within said evacuated chamber and having a distribution of a plurality of diamagnets attached to an outer surface of said inner core, and
• at least one magnetic flux detection unit located within at least one magnetic field generated by at least one group of ferromagnets of said plurality of ferromagnets,
• wherein displacing said rotor from said stability location towards said at least one group of ferromagnets generates a change in magnetic flux in said magnetic field thereby generating an AC current in said at least one magnetic flux detection unit;
• further comprising generating a ferromagnetic surface on said outer shell by at least one of the following:
• covering said outer shell with a magnetic powder, doping said outer shell with a magnetic powder, immersing said outer shell with in a magnetic powder, impregnating said outer shell with a magnetic powder, soaking said outer shell with a magnetic material, coating said outer shell with a magnetic powder, painting said outer shell with a magnetic powder in accordance with said first predetermined magnetic polarity.