Hello, friends welcome to the new post. In this post, we will have a detailed look at the Production Of Induced Force On wire. If we put windings in the varying magnetic field the current will be produced in that winding. The current movement is due to the field which results in the charges to flow about the windings. That force is called MMF.
In this post, we use this concept to study the force application of the wire that is placed in the field. So let’s get started.
Production of Induced Force On wire
- It is the results of the magnetic field that apply force at the current-carrying wire is placed in that field. The basic behavior in this sense can be seen here.
- The diagram above indicates conductor exists in the field having flux density D that is direct to the page.
- The length of the conductor is l meter and I ampere current is passing in that conductor.
F = i(I X B)
- Here
- i denotes the magnitude of current flowing in the conductor
- I denote the length of the conductor,
- B denotes magnetic flux density
- The direction of force can be found through a right-hand rule. This rule says that the index finger of the right hand directed to the vector quantity l and the middle finger directed to the flux density B then thumb indicates the direction of a force in the wire.
- The magnitude of force is here.
F = ilB sinθ
- In this equation, θ is the angle between the conductor and flux density.
How Voltage induced in Conductor moving in Magnetic Field
- If the conductive wire is moved in a certain direction in the magnetic field the in results voltage will be generated in that wire.
- This process can seen in the below figure.
eind = (v X B) • I
Here
- v denotes the velocity of the wire.
B indicates magnetic flux density.
I am the length of conductive material. - The vector quantity is directed to the direction of the conductor to the end point, creating the least angle according to the vector VX B.
- The voltage in the wire is generated; therefore, the positive point is directed to the V x B.
How to calculate force on a wire?
- The force on the current-carrying wire is measured with F = IlB sin θ.
How do you induce a current in a wire?
- The wire coil facing a changing magnetic field and area change of the coil results in a change in magnetic flux. That induces a voltage that produces current in the wire.
How is an induced current produced?
- The process of producing current in a conductor by putting the conductor in a changing field is called induction. That is known as induction since there is no connection between the conductor and the magnet. So current is induced in a conductor with a change in magnetic field.
What is the production of induced force on a wire?
- Electromagnetic induction is the production of EMF over an electrical conductor in a varying magnetic field. Current flows through the solenoid on the left side, generating a changing magnetic field.
What are the three ways to induce current?
- Move agent and coil is in rest conditions.
- Move the coil and keep the magnet at rest.
- Change current in coil by keeping coil at rest.
- Change area of coil in field
What is the working principle of induction?
- The motor operating on electromagnetic induction is called an induction motor. Electromagnetic induction is a process where EMF is idnuces over an electrical conductor if put in a rotating magnetic field.
What will induce an electric current in a wire?
- The current induced in a wire through different processes that change magnetic flux, like moving a magnet into a coil, moving a wire in poles of a magnet, or moving a wire loop between poles, causes current in the wire.
What is the difference between a magnet and an electromagnet?
- The permanent magnet generated a field without the use of any energy sources, and the electromagnet generated a magnetic field through the use of current.
- Electromagnet also on and off and produces a magnetic field stronger as compared to permanent magnets.
That is detailed post about Production of Induced Force On wire if you have any further query ask in the comments, Thanks for reading have a nice day
