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2) A long solenoid, of radius a, is driven by an alternating current, so that the magnetic field is sinusoidal: $B = B_0 sin omega t$. A circular loop of wire, of radius $a/2$ and resistance R, is placed inside the solenoid, and coaxial with it. (a) Find the magnetic flux. (b) Find the induced emf. (c) Find the current induced in the loop, as a function of time. (d) Find the self-inductance.

          2) A long solenoid, of radius a, is driven by an alternating current, so that the magnetic field is sinusoidal: $B = B_0 sin omega t$. A circular loop of wire, of radius $a/2$ and resistance R, is placed inside the solenoid, and coaxial with it.
(a) Find the magnetic flux.
(b) Find the induced emf.
(c) Find the current induced in the loop, as a function of time.
(d) Find the self-inductance.

2) A long solenoid, of radius a, is driven by an alternating current, so that the magnetic field is sinusoidal: B = B0 sin omega t. A circular loop of wire, of radius a/2 and resistance R, is placed inside the solenoid, and coaxial with it.
(a) Find the magnetic flux.
(b) Find the induced emf.
(c) Find the current induced in the loop, as a function of time.
(d) Find the self-inductance.

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University Physics with Modern Physics

Hugh D. Young 14th Edition

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Solved by Expert Adi S

08/08/2023

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A long solenoid, of radius a, is driven by an alternating current, so that the magnetic field is sinusoidal: B = Bo*sin(wt). A circular loop of wire, of radius a/2 and resistance R, is placed inside the solenoid and is coaxial with it. (a) Find the magnetic flux. (b) Find the induced emf. (c) Find the current induced in the loop as a function of time. (d) Find the self-inductance.