Calculating Magnetic Induction of Moving Planar Condensator

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SUMMARY

The discussion focuses on calculating the magnetic induction (B) of a moving planar condensator, defined by the distance between the plates (d) and the velocity (V) of motion. The equation qvB = Fel is referenced, which describes the magnetic force on a charge in a magnetic field. Participants debate the applicability of this equation, suggesting that the problem may involve considering two opposite currents and the resultant magnetic field between the plates. The term "charge fidderence" is questioned, indicating a potential misunderstanding in terminology.

PREREQUISITES
  • Understanding of electromagnetic theory, specifically magnetic induction.
  • Familiarity with the Lorentz force equation (qvB = Fel).
  • Knowledge of planar condensators and their operational principles.
  • Basic grasp of current flow and magnetic fields in physics.
NEXT STEPS
  • Study the principles of magnetic induction in moving conductors.
  • Explore the Lorentz force and its applications in electromagnetic systems.
  • Investigate the behavior of opposite currents and their magnetic interactions.
  • Review the fundamentals of planar condensators and their electrical characteristics.
USEFUL FOR

Physics students, electrical engineers, and professionals involved in electromagnetic research or applications related to moving electrical systems.

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Misplaced Homework Thread: moved from technical forums so no template
Summary:: A planar condensator with the distance between the plates d, is moving with velocity V. The charge fidderence is U. Find the magnetic induction B, between the plates during the motion

I have solved this problem, but I am not sure about the solution, can anyone, please, tell me if I am right.
 

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Your solution is based on your equation qvB = Fel. This is the expression for the magnetic force on a charge moving through a stationary magnetic field. Why do you think it would be applicable here? I think this problem expects you to consider two opposite currents and the magnetic field generated in the region between the two.

BTW, what is a "charge fidderence"? Is it like "covfefe" but in cgs units?

Note: I am aware that this thread is 481 days old and that OP has not been seen since the day after posting it. I replied to get it off the unanswered thread list so that it can be replaced with something fresher.
 
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