PROGRESSIVE MAGNETIC ROTATION MOTOR
New permanent magnetic motor utilizing interacting rows of magnets on rotor poles and a main rotor. The rotor poles have rows of permanent magnets with increasing numbers of magnets per row. The main rotor has magnets and an electro-magnet. Magnets are arranged in opposite direction and polarity on the rotor poles in relation to the main rotor. Magnetic attraction of rotor poles to the main rotor magnets results in a progressive magnetic rotational action producing rotational output. The motor is started, operated and stopped utilizing an electronic controller. Constant rotation is maintained by pulsing the electro-magnet with the controller synchronized to a feedback sensor located on the main rotor shaft.
1 . A permanent magnet motor comprising,
a support housing,
a main rotor with an output shaft and at least one rotor pole in a rotational position within said housing,
multiple permanent magnets on said main rotor and said rotor pole in magnetic rotational engagement with one another,
said permanent magnets arranged in annular space-relation to one another in numerically increasing longitudinal rows,
an electro-magnet on said main rotor for sequential electro-magnet engagement with said permanent magnet rows on said rotor pole,
said permanent magnet rows in alternate magnetic pole orientation to one another to induce movement between said respective main rotor and said respective rotor pole during rotation thereof,
an electrical controller in communication with a source of power and said electro-magnet for pulsing electro-magnet during use.
2 . The permanent magnetic motor set forth in claim 1 wherein in said main rotor and said rotor pole have multiple balance weights in annular space-relation thereon.
3 . The permanent magnetic motor set forth in claim 1 wherein said electronic controller comprises,
an electronic control circuit and a starter circuit,
and a feedback sensor assembly in communication with the main rotor.
4 . The permanent magnetic motor set forth in claim 3 wherein said feedback sensor comprises,
a hall effect pickup and a magnetic timing wheel on said main rotor output shaft,
multiple magnets on said magnetic timing wheel for sequential communication with said hall effect pickup generating selective electrical signals to said controller.
5 . A permanent magnet motor set forth in claim 3 wherein said electronic controller circuit generates an electrical energy pulse to said electro-magnet in relation to the rotation of said main rotor.
6 . The permanent magnet motor set forth in claim 3 wherein said starter circuit comprises,
power output to said electro-magnet independently of said magnetic timing wheel of said feedback sensor assembly.
7 . A magnetic motor comprising,
a support housing,
a main rotor rotatable within said housing and an output shaft in said main rotor,
a plurality of rotor poles rotatably positioned within said housing arranged about said main rotor,
multiple permanent magnets on said main rotor and said respective rotor poles,
said permanent magnets arranged in numerically increasing longitudinal rows in annular spaced-relation to one another,
an electro-magnet on said main rotor for sequential magnetic engagement with permanent magnet row on each of said respective multiple rotor poles,
a controller in electrical communication with said electro-magnet.
8 . The magnetic motor set forth in claim 7 wherein said permanent magnet rows on said main rotor and said multiple rotor poles attract each other to movement towards one another in a successive counter-rotational path of increasing magnets per longitudinal row.
9 . The magnetic motor set forth in claim 7 wherein said electronic controller selectively energizes said electro-magnet coil whereby rotation of the maximum magnet longitudinal row on said respective rotor poles is activated maintaining the rotational path to the adjacent minimum numerical magnet longitudinal rows.