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FIGURE 1 FIGURE 1 is an illustrated view of the present invention. Shown is an illustrative view of the magnet drive motor 10 of the present invention installed in a motor vehicle 12. The present invention is a magnet drive motor 10 for converting electrical energy into mechanical energy for providing motive power to a motor vehicle 12.
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FIGURE 2 FIGURE 2 is a perspective view of an embodiment of the magnet drive motor 10 of the present invention. Shown is the present invention comprising an engine block 14 having a plurality of electromagnets 16 which are supplied electrical energy by an AC transformer 18 for converting and holding a predetermined amount of energy. The intervals for cyclic delivery of electrical energy is controlled by a distributor 20 and delivered via a plurality of electrically conducting wires 22. A crankshaft 24 couples the motor 10 to a drive train of a motor vehicle through a plurality of pistons. A plurality of cam shafts 26 run transversely through the engine block 14. Also shown is air intake 76 and air filter 78 supplying air to the pistons.
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FIGURE 3 FIGURE 3 is a detailed view of the electromagnet 16 of the present invention 10. Shown is an electromagnet 16 of the present invention providing wires 22 carrying current to the electromagnet 16 at intervals determined by a distributor 20 affixed to the engine block 14.
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FIGURE 4 FIGURE 4 is a cross-sectional view of a bored cylinder 28 in the engine block 14 of the present invention 10 during the upstroke portion of a piston cycle. Shown is the present invention having a piston 30 reciprocatingly received within the cylinder 28 with compression rings 32 and oil rings 34 within the cylinder 28 and a brass sleeve 36 lining the interior walls of the cylinder 28 for increased efficiency. The upper end of the cylinder 28 is covered by a cylinder head 38, and an electromagnet 16 is secured within the cylinder head 38. A wire 22 delivers electrical energy to the electromagnet 16, which produces a magnetic force which impinges upon the piston 30, urging the piston 30 toward the electromagnet 16 via unhindered magnetic force. A magnetic shield within the cylinder 28 is actuatable between a first position shielding the piston 30 from the magnetic force produced by the electromagnet 16 and a second position exposing the piston 30 to the magnetic force produced by the electromagnet 16. Additionally shown is the cylinder 28 having a coat of insulation 42 to prevent injury from electric shock, compression rings 32. a brass sleeve 36 and an oil ring 34.
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FIGURE 5 FIGURE 5 is a cross-sectional view of a bored cylinder 28 in the engine block 14 of the present invention 10 during the downstroke portion of a piston cycle. Shown is the present invention having a piston 30 reciprocatingly received within the cylinder 28 with compression rings 32 and oil rings 34 within the cylinder 28 and a brass sleeve 36 lining the interior walls of the cylinder 28 for increased efficiency. The upper end of the cylinder 28 is covered by a cylinder head 38, and an electromagnet 16 is secured within the cylinder head 38. A wire 22 delivers electrical energy to the electromagnet 16, which produces a magnetic force which impinges upon the piston 30, urging the piston 30 toward the electromagnet 16 via unhindered magnetic force. A magnetic shield 40 within the cylinder 28 is actuatable between a first position shielding the piston 30 from the magnetic force produced by the electromagnet 16 and a second position exposing the piston 30 to the magnetic force produced by the electromagnet 16. Additionally shown is the cylinder 28 having a coat of insulation 42 to prevent injury from electric shock. When the electromagnet 16 is deactivated and a the magnetic shield 40 slid into place, gravity, momentive force and the crankshaft work in cooperation to bring the piston 30 back down to its bottom position.
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FIGURE 6 FIGURE 6 is a partial view of the magnetic shield 40 of the present invention 10. Shown is a top view of the present invention showing the magnetic shield 40, preferably in the form of a plate, of the present invention positioned to be displaced by means of a cam system 44 applying force about a pivot point 46, with a spring 48 to provide a counter force for a complete cycle. As illustrated, the cam system 44 includes a large cam 50 and a small cam 52.
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FIGURE 7 FIGURE 7 is a partial view of the cam system 44 of the present invention 10. Shown is a top view of the present invention showing the pressure release 54 serving to be displaced by means of a cam system 44 so that when actuated by the small cam 52 pressure from within the cylinder 28 is released.
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FIGURE 8 FIGURE 8 is a side view of the crankshaft 24 of the motor of the present invention 10. Shown is a front view of the present invention illustrating the various components of the present invention that are driven by a belt crankshaft 24 relationship, including a belt 56, alternator 58, AC transformer 18, power steering 60 and air conditioning 62.
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FIGURE 9 FIGURE 9 is a side view of the accelerator pedal 64. Shown is side view of the accelerator pedal 64 of the present invention 10 depicting a voltage control 66 with a return spring 68 that delivers progressively more power as the pedal 64 is depressed.
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FIGURE 10 FIGURE 10 is a perspective view of embodiments of the magnetic shield 40. The present invention 10 envisions a magnetic shield 40 for impinging redirection through a magnetic flux field conductive member 70 of a magnetic field, a semi-conducting material 72 and/or generating a secondary opposing magnetic field used in conjunction with an inorganic polymeric medium 74, such as plastic to shield the steel piston from the magnetic field of the electromagnet at a predetermined piston position negating the magnetic field whereby the steel piston through gravity and cam momentum completes a piston cycle.
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