Magnetic torque converter

Claim 2

A magnetic torque converter comprising two basic rotating components, a large flat non-magnetic disc containing multiple equally spaced identical permanent magnets arrayed so that their common poles (N) are exposed at the periphery, a driving helical non-magnetic rotor containing identical equally spaced permanent magnets arrayed so that their common opposite poles (S) are exposed at the outer helical surface, arrangement of said large flat non-magnetic disc and said driving helical non-magnetic rotor on a common centerline with rotating axes at a right angle to each other, support means for said large flat non-magnetic disc including an elongate base and shaft with ball bearing means, support means for said driving helical non-magnetic rotor including supporting brackets and shaft with ball bearing-means, securing of said supporting brackets onto said elongate base, securing and locking means for each of said equally spaced permanent magnets onto said large flat non-magnetic disc and said driving helical non-magnetic rotor, electric motor drive means for the shaft of said driving helical non-magnetic rotor, a coupling securing said electric motor to said shaft of the driving helical non-magnetic rotor, a coupling secured to the shaft of said large flat non-magnetic disc.

Claim 3

A magnetic torque converter according to claim 1 in which said equally spaced permanent magnets are of squarish or rectangular flat form and made from standard iron-nickel-al. magnetic alloy, said equally spaced permanent magnets range in size and power from a minimum of 5 pounds lifting power to a maximum of 250 pounds lifting power.

Claim 4

A magnetic torque converter according to claim 1 wherein the pitch of said driving helical non-magnetic rotor is not less than 1/6 the said helical rotor diameter nor more than 1/2 the said helical rotor diameter, said driving helical non-magnetic rotor is fabricated from a durable non-magnetic metal and formed as a constant diameter helical disc.

Claim 5

A magnetic torque converter according to claim 1 in which said electric motor drive means is a direct current type of a size and rating consistent with the size of said magnetic torque converter, a direct current type of said electric motor drive means powered by multiple solar photovoltaic cells.

Claim 6

A magnetic torque converter according to claim 1 wherein said coupling secured to the shaft of said large flat non-magnetic disc is secured to an electric alternator to produce low voltage direct current electric power.

Claim 7

A magnetic torque converter comprising two basic components, a large flat non-magnetic disc containing multiple equally spaced identical permanent magnets arrayed so that common poles (S) are exposed at the periphery, a driving helical non-magnetic rotor containing multiple equally spaced identical permanent magnets arrayed so that common poles (N) are exposed at the periphery, arrangement of said large flat non-magnetic disc and driving helical non-magnetic rotor on a common centerline with rotating axes at an angle other than ninety degrees in either direction, support means for said large flat non-magnetic disc including an elongate base and shaft with ball bearing means, support means for said driving helical non-magnetic rotor including supporting brackets and shaft with ball bearing means, securing of said supporting brackets onto said elongate base, locking of said driving helical non-magnetic rotor supporting brackets at an angle other than ninety degrees in relation to said large flat non-magnetic disc, securing and locking means for each of said equally spaced permanent magnets onto said large flat non-magnetic disc and said driving helical non-magnetic rotor, electric motor drive means for the shaft of said driving -- helical non-magnetic rotor, a coupling securing said electric motor to said shaft of the driving helical non-magnetic rotor.

Claim 8

A magnetic torque converter comprising two basic components, a large flat non-magnetic disc containing multiple equally spaced identical permanent magnets arrayed so that common poles (S) are exposed at the periphery, a driving helical non-magnetic rotor containing multiple equally spaced identical permanent magnets arrayed so that common poles (N) are exposed at the periphery, arrangement of said large flat non-magnetic disc and driving helical non-magnetic rotor on a common centerline with rotating axes at an angle other than ninety degrees in either direction, support means for said large flat non-magnetic disc including an elongate base and shaft with ball bearing means, support means for said driving helical non-magnetic rotor including supporting brackets and shaft with ball bearing means, securing of said supporting brackets onto said elongate base, locking of said driving helical non-magnetic rotor supporting brackets at an angle other than ninety degrees in relation to said large flat non-magnetic disc, securing and locking means for each of said equally spaced permanent magnets onto said large flat non-magnetic disc and said driving helical non-magnetic rotor, electric motor drive means for the shaft of said driving -- helical non-magnetic rotor, a coupling securing said electric motor to said shaft of the driving helical non-magnetic rotor.

Claim 9

A magnetic torque converter according to claim 6 in which said equally spaced permanent magnets are of squarish or rectangular flat form and made from conventional magnetic ceramic, said equally spaced permanent magnets range in size and lifting power from a minimum of ten pounds to a maximum of 350 pounds lifting power.

Claim 10

A magnetic torque converter according to claim 6 wherein the pitch of said driving helical non-magnetic rotor is equal to the spacing of the multiple equally spaced identical permanent magnets contained on said large flat non-magnetic disc, said driving helical non-magnetic rotor is fabricated from high strength aluminum alloy and formed as a single pitch helical disc.

Claim 11

A magnetic torque converter according to claim 6 in which said electric motor drive means is an alternating current type unit and of any size and rating consistent with the size of said magnetic torque converter, an alternating current type of said electric motor drive means connected to a convenient conventional alternating current power source.

Claim 12

A magnetic torque converter according to claim 6 wherein a coupling is secured to the shaft of said large flat non-magnetic disc, connection of said coupling to an electric alternator to produce alternating current at 110 volts.