Educational / Video

Below videos are examples of Proof of Principle Models that shows the technology is sound and valid. The below prototypes are basic, our units that are going to Underwriters Laboratories UL for approval super-exceeds these prototypes and are more advanced than what is showed below.

** There is a “secondary unit” which works along with the magnetic energy unit, which is proprietary information, and we cannot show here, this is where most of the power is created and generated from. The company wishes to keep this confidential for now and is used in the process and methods that will be used in manufacturing and production.

Check out these 2 videos above, is this crazy or what. People lined up and sometimes at night to charge their cars. Is this really the reality of the future of getting your Tesla or any other electric car charged? There is No need to charge your electric car this way anymore, we have new technology to keep your electric car charged constantly as you're traveling down the highway.

Examples of magnets being used to create energy. The video below are a Proof of Principle Model that shows the technology is sound and valid. This is a Model Prototype, our units that are going to Underwriters Laboratories UL for approval super-exceeds and are more advanced than what is showed below. Click to enlarge video if needed.

Why and How Magnets Can Generate Electricity?

Introduction

In the early 1820s, Michael Faraday, an English scientist, was able to generate electricity by moving a loop of wire between the poles of a magnet. And he posited the first principle for generating electricity.

Electrical energy obeys the first law of thermodynamics which states that energy can neither be created nor destroyed but can be converted from one form to another. Following this law, magnetic energy can be converted to electrical energy. Hence, magnets can be used to generate electricity. This raises the question, How? What Is Electromagnetic Induction?

For a better understanding of how magnetic forces can generate electricity, we must take a close look at a phenomenon known as electromagnetic induction. This process that creates an electromotive force across an electric conductor in the presence of a changing magnetic field. Essentially, when a magnetic field around a conductor changes, it causes the electrons in the conductor to move, creating an electric current. This principle is the basis for many electrical generators and motors.

How Can Magnets Generate Electricity? Magnets generate electricity through a process called

electromagnetic induction. Here's how it works:

Relative Motion: To generate electricity, there must be relative motion between a magnet and a conductor (usually a coil of wire). This can be achieved in various ways, such as moving a magnet through a wire coil or rotating a coil within a magnetic field.
Magnetic Field Interaction: As the magnet moves, the magnetic field around it changes relative to the conductor. This change in the magnetic field causes the magnetic flux through the coil to vary.
Induced Voltage (EMF): According to Faraday's Law, this change in magnetic flux induces a voltage in the conductor. The faster the change in the magnetic field (i.e., the faster the relative motion between the magnet and the conductor), the greater the induced voltage.
Electric Current: If the conductor is part of a closed circuit, the induced voltage drives an electric current through the circuit, generating electricity.

Applications for Electromagnetic Induction

Since Michael Faraday discovered that magnets can generate electricity using electromagnetic induction in 1831, this phenomenon has been applied in various inventions. Some of them are mentioned below.

Electric Generator -

An electric generator is a device that converts mechanical energy into electrical energy. An electrical generator typically has two parts. One part is called the field winding part while the other part is called the armature. The field winding part is concerned with producing magnetic fields in the electric generator. The armature is concerned with producing electric currents from magnetic fields.

Michael Faraday produced the first electromagnetic generator, the Faraday disk. It was made from a copper disk rotating between the poles of a horseshoe magnet to produce electric currents.

There are two types of electric generators. One is called the alternating current generator; the other is called the direct current generator.

In an alternating current generator, as the name implies, the direction of the induced current alternates each time the direction of motion of the conductor changes.
However, in a direct current generator, the direction of the induced current does not change under any circumstance. This is because direct current generators contain commutators.

Electric Motor -

An electric motor is a device that converts electrical energy into mechanical energy. In an electric

motor, the stator holds the magnets. The magnets could be permanent magnets or electromagnets. The rotor, on the other hand, holds the electrical conductor in the electric motor. The electric current from the conductor causes the magnetic field from the magnets to exert a force on the rotor. This force causes the motor to turn and deliver a mechanical output.

Electromagnetic Forming -

This is a method of reshaping metals without mechanical influence.

In this process, a coil is brought close to the metal. An alternating magnetic field around the coil induces an electric current in it. The electric current in the coil creates a magnetic field around the conductor. The magnetic field around the coil and the magnetic field around the conductor repel each other. Then the magnetic force around the coil overpowers the yielding force of the conductor. Thus, the conductor undergoes permanent deformation.

Transformer -

Transformers function with the principle of electromagnetic induction. They are used to changing the voltage levels of alternating currents. Hence, there are two types of transformers.

The step-up transformer is the type of transformer that raises the voltage levels of alternating currents while the step-down transformer is the type of transformer that decreases the voltage levels of alternating currents.