The invention is an apparatus for moving a movable module, comprising a stationary module (30′) having first permanent magnets (21), a movable module (29′) arranged movably with respect to the stationary module (30′) and having second permanent magnets (23), and polarizer elements (24),
wherein during operation, a movement of the movable module (29′) is exclusively based on magnetic interactions, wherein continuously by means of moving polarizer elements (24) a pushing effect is present between the same magnetic poles a first pair of a first permanent magnet (21) and a second permanent magnet (23), and/or a pulling effect is present between a second pair of a first permanent magnet (21) and a second permanent magnet (23) via a polarizer element (24) being moved into between the second pair of magnets.

The invention is an apparatus for moving a movable module, comprising a stationary module (30′) having first permanent magnets (21), a movable module (29′) arranged movably with respect to the stationary module (30′) and having second permanent magnets (23), and polarizer elements (24),
wherein during operation, a movement of the movable module (29′) is exclusively based on magnetic interactions, wherein continuously by means of moving polarizer elements (24) a pushing effect is present between the same magnetic poles a first pair of a first permanent magnet (21) and a second permanent magnet (23), and/or a pulling effect is present between a second pair of a first permanent magnet (21) and a second permanent magnet (23) via a polarizer element (24) being moved into between the second pair of magnets.

The present disclosure provides a portable power generating system configured to utilize self-sustained energy to provide velocity and movement to turn a central tubular axle which is encompassed by two or more magnets spread evenly around the circumference of the axle to generate motion. The motion of the revolving magnets turns the armature of one or more DC power generating motors which in turn produce electricity. The central tubular axle supported by two DC power generating motors are connected to each end of the central tubular axle. One of the DC power generating motors revolves in a clockwise direction during operation and the DC power generating motor at the opposite end of the central tubular axle is configured to operate in an anti-clockwise motion during operation.

Device (1) for generating propulsive force F consisting of an electrically-supplied superconductive solenoid (2) generating magnetic flux ϕ with density B, a superconductive magnetic-field shield (5) covering the solenoid (2), means (4) for cooling the solenoid (2) and the shield (5) and a core of high magnetic permeability (3) around which the solenoid (2) is wound generating magnetic flux density vectors B.sub.α and B.sub.β at the respective ends (α, β) of the core (3). The core (3) includes one or more curved parts so that when the solenoid (2) operates, the vectors B.sub.α, B.sub.β tend to be perpendicular to the respective cross-sections of the ends (α,β), and the alteration of direction of the vector B along each curved part generates force vectors F.sub.α, F.sub.β acting perpendicularly to the cross-sections of the ends (α, β), the sum of F.sub.α and F.sub.β generates the force F in the device (1).

A power transmission assembly includes a base, a rotating frame rotatably coupled to the base and configured to rotate about an axis, an output shaft coupled to the rotating frame, a weight selectively repositionable relative to the rotating frame, and a weight actuator configured to reposition the weight relative to the rotating frame to move the weight from a subtraction position located at a first height to an addition position located at a second height. The second height is greater than the first height such that a gravitational force on the weight drives the rotating frame to rotate about the axis and drive the output shaft.

A power supply charging system comprising: a) a first power cell having electrical energy stored therein; b) a second power cell having electrical energy stored therein, wherein the first power cell and the second power cell are adapted to not be in a discharging mode or a charging mode simultaneously; c) a third power cell in electrical communication with the first power cell and the second power cell, wherein the third power cell is adapted to operably supply power to the first power cell when in the charging mode or the second power cell when in the charging mode; and d) a control system which is adapted to alternate the power being supplied from the third power cell to the first power cell while in the charging mode and the second power cell which in the charging mode based on an occurrence of a pre-determined condition.

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.

A perpetual self-sustained frictionless maglev generator started from an external power or battery source is disclosed. The power from the generator can be remote at each station avoiding vulnerability from terrorist attacks. All automobiles, airplanes, watercraft, and space ships would be self-sustained and not require any fuel unless for emergency backup purposes only. They all can be measured/controlled by GPS on a distance used and charged for that use accordingly on a monthly basis. Nuclear disaster would not be a threat because the government could use this generator to power their apparatus instead.

A perpetual self-sustained frictionless maglev generator started from an external power or battery source is disclosed. The power from the generator can be remote at each station avoiding vulnerability from terrorist attacks. All automobiles, airplanes, watercraft, and space ships would be self-sustained and not require any fuel unless for emergency backup purposes only. They all can be measured/controlled by GPS on a distance used and charged for that use accordingly on a monthly basis. Nuclear disaster would not be a threat because the government could use this generator to power their apparatus instead.