Abstract: A disc motor uses first, second magnetic components and third, fourth magnetic components of first, second magnetic disc set of a magnetic set to carry out magnetization in the motion direction, a coil of a coil set of an induction set is arranged perpendicularly to the motion direction, so as to form a four magneto-mechanical force effect; poles of the first, second magnetic components and the third, fourth magnetic component of the first, second magnetic disc sets are arranged oppositely to each other if they are different in polarity and adjacently to each other if they are the same in polarity; with the switching of forward reverse circuit power supplies of an induction switch circuit, magnetic resistant force can be avoided, the whole motion process is magnetically assisted, input power can be reduced effectively, and output power is increased.

Abstract: The electric motor includes at least two opposing magnet sets, at least a coil assembly, and a detection switch circuit. Each magnet set includes at least a magnet whose poles are arranged perpendicular to the movement of the magnet. The magnets in a same magnet set are stacked and have poles on a same side of reversed polarities. Opposing magnets from neighboring magnet sets have facing poles of a same polarity. The coil assembly is disposed between neighboring magnet sets, and axially parallel to an alignment direction between the facing poles of opposing magnets. Each coil assembly includes a magnetizer wrapped in a winding. Yokes are extended from two ends of the magnetizer towards opposite directions and a specific distance is between the yokes' centers. Together with the detection switch circuit's switching between positive and negative power supplies, the electric motor effectively reduces input power, and increases output power.

Abstract: An interactive electromagnetic apparatus, which includes an acting magnet assembly, a conducting magnet assembly parallel with the acting magnet assembly, an induction coil assembly arranged between the acting magnet assembly and the conducting magnet assembly, and an induction switch module, in which the acting magnet assembly includes at least two magnets arranged to space from each other. These magnets have magnetic poles face the induction coil assembly. The adjacent ones of the magnets are arranged to have opposite magnetic poles face each other. The conducting magnet assembly includes at least two magnets arranged to space from each other. These magnets have two ends having magnetic poles parallel with a moving direction. As such, the induction coil assembly generates a reverse magnetic resistance force at only one end thereof.

Abstract: A coaxial electromagnetic apparatus formed of at least one magnetic disk and at least one coil disk synchronously and relatively movable and staggered at intervals. The magnetic disk and the coil disk are respectively provided with at least one power-driven module and at least one power generation module. The power-driven modules are provided at the outermost diameters of the magnetic disk and the coil disk. The power generation modules are provided at the innermost diameters of the magnetic disk and the coil disk. A rotation speed of the magnetic disk is increased due to torque amplification and good magnetic current management of the power-driven modules, thereby achieving low power consumption and large thrust of the power-driven modules. The power generation modules generate high cutting frequency to increase power generated and meet the requirement for supplying power to the power-driven modules, thereby achieving autonomous power generation and a self-propelled motor.

Abstract: The present invention discloses a distributed electromagnetic apparatus is made up of an induction coil assembly and a magnet assembly to reduce increase magnetic stress and loss of kinetic energy. The magnet assembly has at least one magnetic member arranged at each of two ends of the coil such that the magnetic members are arranged in pair as being opposite to each other with opposite polarities facing each other. The center of the magnetic member corresponds to an axis of the coil and centers of the magnetic members that are located at two opposite sides being each set at a location between centers of two adjacent conjugate teeth of the magnetic conductor. The magnetic member generates magnetic stress to form inclined forces in opposite directions so that horizontal force components on two sides are opposite in directions and cancel each other and vertical force components on two sides are reduced.