Abstract: The present invention includes an electromagnetic motor having an asymmetric field stator. An aluminum rotor 6 includes a gorup 26 of permanent magnets that occupy a 153.degree. segment of the rotor 6 and are counterbalanced mechanically by brass counterweights 28 on the other side of the rotor 6. An aluminum stator housing 42 includes a large segment 48 of permanent magnets 54 separated by an electromagnet segment 50 from a small segment 52 of permanent magnets 54. The large segment 48 subtends an angle of 122.degree., the small segment 52 an angle of 22.degree.50' and the electromagnets 43.degree.. The permanent magnets 54 and electromagnets 56 and 58 of the staotr 42 produce a magnetic field that can have its center shifted from a first position or equator C by 32.degree.25' to a second position or second equator C'. As the rotor 6 spins the shifting of the center of the magnet field created by the stator 42 imparts momentum to the rotor 6 as it tries to align with the stator magnetic field.

Abstract: The present invention provides enhanced electromagnetic radiation transmission by providing an electrically conductive lamination between the silicon iron laminations in transformers, motors, alternators and solenoids. The conductive laminations increase the transmission of electromotive force and enhance cooling. An alternative to providing conductive laminations in a laminated core or stator is to provide a solid sintered metal core including iron, silicon and a conductor. Each transformer also includes a conductive amplifier coil connected in series with the primary coil and circling the primary coil and another conductive coil connected in series with the secondary coil and circling the secondary coil. The coils take advantage of the negative induction current described by Lenz's law to increase efficiency. In a motor, the stator laminations are optionally surrounded by a conductive amplifier coil which produces an amplification effect.