An internal combustion engine has a crankshaft with at least one throw being formed as a complete disc over at least a portion of its thickness. Permanent magnets are attached to the disc of the at least one throw in an annular array. Electromagnets are attached to the engine block, a brace coupled to the engine block, and/or an oil pan mounted to the engine block. The brace may include one or more circular structures surrounding the discs of the throws, and may support the electromagnets. The electromagnets are positioned opposite the permanent magnets. A control system selectively provides electrical current to the electromagnets to affect the motion of the crankshaft, and may further selectively activate and deactivate at least one of the cylinders by stopping fuel flow, spark, and/or intake valve actuation.

The present disclosure relates broadly to an energy apparatus comprising a flywheel assembly, drive means operatively coupled to the flywheel assembly, and an energy generator operatively coupled to the flywheel assembly via extraction means. The drive means includes biasing means connected to an actuator arranged to provide stored energy in the biasing means. The apparatus also comprises transmission means coupled between the flywheel assembly and the biasing means wherein release of stored energy from the biasing means provides a driving force which effects rotation of the flywheel assembly which gains momentum. The extraction means is arranged for rapid extraction of the momentum of the flywheel assembly. The energy generator generates electricity from the rapidly extracted momentum of the flywheel assembly.

The present disclosure relates broadly to an energy apparatus comprising a flywheel assembly, drive means operatively coupled to the flywheel assembly, and an energy generator operatively coupled to the flywheel assembly via extraction means. The drive means includes biasing means connected to an actuator arranged to provide stored energy in the biasing means. The apparatus also comprises transmission means coupled between the flywheel assembly and the biasing means wherein release of stored energy from the biasing means provides a driving force which effects rotation of the flywheel assembly which gains momentum. The extraction means is arranged for rapid extraction of the momentum of the flywheel assembly. The energy generator generates electricity from the rapidly extracted momentum of the flywheel assembly.

Apparatuses, systems, and methods of use for a magnetic coupling device is disclosed. The magnetic device may have a plurality of magnets to create a magnetic field to the devices enclosed within the device. The coupling device may have a housing that encloses and/or partially surrounds one or more rotatable shafts. The coupling device may couple an output shaft from a motor to an input shaft of a generator. The coupling device may have an electric coil that when energized may vary any applied magnetic field to the rotatable shafts. The magnetic device may have a first plurality of magnets positioned at a first radial position and a second plurality of magnets positioned at a second radial position, with the first magnets being rotatable and the second magnets being stationary. Multiple magnetic coupling devices may be coupled together in series to provide increased magnetic fields to the enclosed system.

The Magnetic attraction and repulsion device for driving axes in rotation is a new system for producing motive force released through one or two coaxial outlets.

The Magnetic attraction and repulsion device for driving axes in rotation includes a centrally positioned axis carrying one or various permanent magnets and at least one synchronization toothed gear. This assembly forms the rotor. The system also consists of other peripheral axes around the rotor, each carrying at least one permanent magnet and at least one synchronization toothed gear. Finally, transmission toothed gears connect by meshing the synchronization toothed gears of the rotor and those of the peripheral axes. Preferably, all the axes should be in stainless steel.

The continuous activity of the system is achieved by the fact that one or various magnetic poles of permanent magnets carried by the rotor axis, is directed in alternation between two or four magnetic poles of permanent magnets carried by the peripheral axes.

In order to control the continuous movement of the system, the latter uses an electromagnetic stator or a control means composed of rings having permanent magnets thus allowing to control the slowing down, acceleration or resting of this movement. (Whatever the control means can be, it is excluded from the present invention).

The invention provides a power generation method and a system equipped with energy storage and energy release accommodation mechanism. By using an energy storage and energy release accommodation system arranged in the system, the generator set at an end of the system can immediately supplement energy from an energy storage unit after providing electric energy to a load, so that the output energy will not drop suddenly, while still stably maintaining both the rated energy output and the system operation.

A system for transforming energy, the system including a spaced-apart pair of first magnets disposed along a first axis; a reciprocator including a support; a shaft disposed on the support; a pair of second magnets, each disposed on one end of the shaft, the pair of second magnets further disposed along a second axis within the spaced-apart pair of first magnets such that each the second magnet is configured to interface with one of the pair of first magnets in a magnetic field interaction, the second axis is coaxially disposed with respect to the first axis, the magnetic field interaction is dependent upon a distance along the first axis between a second magnet and a first magnet with which the second magnet interacts; and a pair of shields, a shield positioner for positioning the pair of shields and an input receiver for motivating the shield positioner.

A system for transforming energy, the system including a spaced-apart pair of first magnets disposed along a first axis; a reciprocator including a support; a shaft disposed on the support; a pair of second magnets, each disposed on one end of the shaft, the pair of second magnets further disposed along a second axis within the spaced-apart pair of first magnets such that each the second magnet is configured to interface with one of the pair of first magnets in a magnetic field interaction, the second axis is coaxially disposed with respect to the first axis, the magnetic field interaction is dependent upon a distance along the first axis between a second magnet and a first magnet with which the second magnet interacts; and a pair of shields, a shield positioner for positioning the pair of shields and an input receiver for motivating the shield positioner.

As is scientifically well know magnetic flux is a physical force (i.e. the Lorentz force and Ampere's force). The invention utilizes a plurality of electromagnetic and or plasma coils to create high pressure, high velocity magnetic flux directed through variable exhaust nozzles or a cone shaped electrical coil to create thrust for spacecraft.

In some embodiments, the present invention may include, for example, systems, devices, and methods for power generation using a permanent magnet and/or an electro magnet installed on a twisted band wheel or wheels and/or installed on stationary discs and plates. Due to magnetic field forces for example between the stationary discs and the twisted band, the twisted band may be driven to move (e.g., rotate), rotation of the twisted band is optionally transferred by an axle to a generator.