Any time a magnet's flux lines cut past a conductor (wire), a small pulse of electricity is generated. A generator is the same as a motor, except, it's rotor core is rotated by external means (wind, waterfall from a dam, steam and so on). As the rotor rotates, the magnetic field lines cut the conductors creating a pulse of electricity. The faster the rotor is rotated, the more power you will generate. You can experiment by using a small toy motor, connect the wires to a small low voltage light bulb, then rotate the rotor; the light bulb will light up.
Any time a magnet's flux lines cut past a conductor (wire), a small pulse of electricity is generated. A generator is the same as a motor, except, it's rotor core is rotated by external means (wind, waterfall from a dam, steam and so on). As the rotor rotates, the magnetic field lines cut the conductors creating a pulse of electricity. The faster the rotor is rotated, the more power you will generate. You can experiment by using a small toy motor, connect the wires to a small low voltage light bulb, then rotate the rotor; the light bulb will light up.
When a conductor is moved through a magnetic field ("cuts the field lines"), a voltage, and a current, is induced in the conductor. Thus, mechanical energy is converted tinto electrical energy.
Pass a magnet back and forth near a piece of wire, and electricity is produced in the wire. It has nowhere to go until a complete circuit is established, however.
Scale this up to a large winding of wire, and rotate the magnet inside the large winding and you will generate much more electricity . . . in fact, a device of this nature is called a 'generator'.
If the wire is moved in the magnetic field - that is, near the magnet - a voltage will be generated. If the wire is connected to a closed circuit, a current will also flow. I want to know that with magnet rotating it attached to a wire of no eletricity the wire attached to a small bulb. By rotating magnet electricity is produced make bulb glow. But what i want to do/
Transfer of magnetic fields to electric and vice verse is described by Maxwell equations.
You get electricity from magnets when they are spun up inside a coil of wire. See the video available at the link below.
Yes, magnets are an integral part of electrical energy generation.
magnet moves cause all magnets have an electric field around it]
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Steam pressure can be used to run a steam turbine which generates electricity by converting the motion of magnets into voltage.
By rubbing two magnets together.
Magnets are used to generate electricity by rotating them around a metal wire. Alternatively, rotate magnets within a coiled metal wire.
electricity
Yes, magnets are an integral part of electrical energy generation.
Using coal to generate electricity. (APEX)
When light shines on a semiconductor p-n junction, the energy from photons can create electron-hole pairs, generating a potential difference across the junction. This potential difference can create an electric current when connected to an external circuit, allowing for the generation of electricity through the photovoltaic effect.
Muscles can generate pressure. Using transducers, pressure can be converted into electricity.
magnet moves cause all magnets have an electric field around it]
Magnets are just rocks that come from the Earth. The Earth has grvaity, and when the magnets come up frm the ground they keep there gravity with them and thts how it wrks.
Magnets generate electricity by moving the magnet along a conductor, such as a wire. This is called induction. When magnetic lines of force sweep across a conductor, the magnetic field induces a voltage in the conductor. Voltage is "electrical pressure" and if a supporting circuit is set up connected to that conductor, current will flow.
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Steam pressure can be used to run a steam turbine which generates electricity by converting the motion of magnets into voltage.