Magnetism to voltage conversion

In summary, the conversation discusses the behavior of point charges with velocity and their interaction with an uncharged capacitor. The theory is that electrons cascade through atoms by quantized electron movement and the capacitor plays a role in converting the moving point charges into stationary ones. This process involves the conversion of energy between magnetic and voltage energy in an LC oscillator.
  • #1
pzlded
73
0
Point charges w/velocity have a magnetic field. How does an uncharged capacitor slow the point charges to zero velocity?

Shouldn't elastic collisions with other point charges or atoms predominate, followed by inelastic collisions that convert point charge kinetic energy to thermal energy?
 
Physics news on Phys.org
  • #2
Hint: Current theory is that electrons cascade through atoms by quantized electron movement.
 
  • #3
pzlded said:
Point charges w/velocity have a magnetic field. How does an uncharged capacitor slow the point charges to zero velocity?

What charges? The capacitor is uncharged.

I am having trouble following or understanding your question.
 
  • #4
In an LC oscillator, energy converts back and forth between magnetic energy and voltage's energy. When magnetic energy is max, exactly how does the capacitor begin converting the moving point charges into stationary point charges?
 

1. How does a magnetism to voltage conversion work?

A magnetism to voltage conversion works by using a magnetic field to induce an electrical current in a conductive material. This process is known as electromagnetic induction. When a magnet moves or changes position near a conductive material, it creates a changing magnetic field, which in turn produces an electrical current in the material.

2. What materials can be used for magnetism to voltage conversion?

Materials that are commonly used for magnetism to voltage conversion include copper, aluminum, and iron. These materials are good conductors of electricity and can easily be affected by magnetic fields to produce a voltage.

3. How is the voltage level determined in a magnetism to voltage conversion?

The voltage level in a magnetism to voltage conversion is determined by the strength of the magnetic field, the speed of the movement, and the properties of the conductive material. The greater the strength of the magnetic field or the faster the movement, the higher the voltage produced. Additionally, the type of material used can also affect the voltage level.

4. What are some practical applications of magnetism to voltage conversion?

Magnetism to voltage conversion has many practical applications in various industries. It is commonly used in generators to produce electricity from mechanical energy, in sensors to detect changes in magnetic fields, and in electric motors to convert electrical energy into mechanical energy.

5. Can magnetism to voltage conversion be used to generate renewable energy?

Yes, magnetism to voltage conversion can be used to generate renewable energy. This is commonly seen in wind turbines, where the rotation of the blades creates a changing magnetic field that induces an electrical current in the generator. This electricity can then be used as a renewable source of energy.

Similar threads

  • Electromagnetism
Replies
2
Views
867
Replies
1
Views
963
Replies
3
Views
737
Replies
9
Views
501
  • Electromagnetism
Replies
4
Views
973
Replies
61
Views
2K
  • Electromagnetism
Replies
7
Views
1K
Replies
5
Views
1K
Replies
7
Views
977
Replies
4
Views
278
Back
Top