The total charge induced in a conducting loopwhen it is moved in a mag...

(taking only magnitude of e)
Hence, total charge induced in the
conducting loop depends upon the total
change in magnetic flux.
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The total charge induced in a conducting loopwhen it is moved in a mag...
Total Charge Induced in a Conducting Loop
The phenomenon of induced charge in a conducting loop when it is moved in a magnetic field is governed by Faraday's law of electromagnetic induction.
Understanding the Induction Process
- When a conducting loop moves through a magnetic field, the magnetic flux through the loop changes.
- According to Faraday's law, the induced electromotive force (emf) in a closed loop is directly related to the rate of change of magnetic flux through the loop.
Factors Affecting Induced Charge
- The total charge induced in the loop depends on the total change in magnetic flux (option C).
- It is not just the initial or final magnetic flux that matters, but the total difference between the initial and final states of the magnetic flux.
Key Points to Remember
- Total Change in Magnetic Flux: This is the difference between the magnetic flux at the start and at the end of the movement. The greater this difference, the larger the induced charge.
- Rate of Change vs. Total Change: While the rate of change of magnetic flux is important for calculating induced emf, the total charge induced is ultimately determined by the total change in flux over the entire movement.
Conclusion
In summary, the total charge induced in a conducting loop when moved through a magnetic field is primarily dependent on the total change in magnetic flux, confirming that option C is indeed the correct choice. Understanding this principle is vital in applications like electric generators and transformers, where electromagnetic induction plays a crucial role.