3) Figure shows a circuit and a conducting rod. A conducting rod moves with a constant velocity v perpendicular to a circuit with a current I=2.82sin(wt). (a) Find the magnetic field. (c) Find the induced emf. (a) Find the current Irms of the circuit.
3) Figure shows a circuit and a conducting rod. A conducting rod moves with a constant velocity v perpendicular to a circuit with a current I=2.82sin(wt). (a) Find the magnetic field. (c) Find the induced emf. (a) Find the current Irms of the circuit.
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Figure shows a circuit and a conducting rod. A conducting rod moves with a constant velocity v
perpendicular to a circuit with a current I=2.82sin(??).
(a) Find the magnetic field.
(c) Find the induced emf.
(a) Find the current ???? of the circuit.
(b) Write the expressions for E and B in the form ? = 10 sin(?? − ??) and ? =
???? sin(?? − ??) with numerical values for Bmax, k, and w when the wavelength λ = 500 m,
and the period T=6 s. (?0 = 4? × 10−7 T. m/A, ? = 3 × 108 m/s)
Transcribed Image Text:3) Figure shows a circuit and a conducting rod. A conducting rod moves with a constant velocity v
perpendicular to a circuit with a current I=2.82sin(wt).
(a) Find the magnetic field.
(c) Find the induced emf.
(a) Find the current Irms of the circuit.
(b) Write the
Bmax sin(kx – wt) with numerical values for B,
and the period T=6 s. (µo = 4t × 10-7 T. m/A, c = 3 × 108 m/s)
expressions for E and B in the form E = 10 sin(kx – wt) and B =
k, and w when the wavelength 1 = 500 m,
max
a
I=2.82sin(wt)
R = 2 0
V = 8v2 sin(wt)
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