Pictured at 1=0 1m u= 10 m/s A semicircular conducting loop containing a resistor R is shown at time t = 0. If the loop is moving with constant velocity u = 10x m/s in a time-varying magnetic flux density of B(p, t) = 2(4-p)cos (5nt + n/4) T, where p is the radial distance from the origin in meters and t is in seconds. If the loop radius is 1 m a. Calculate the transformer emf induced at t=0. Indicate your coordinate system of choice! b. Calculate the total emf induced at t = 0. c. Indicate clearly the direction of current flow within the loop at t= 0. Explain how you arrived at your answer.

Introductory Circuit Analysis (13th Edition)
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Pictured at
t=0
1m
u=
1 = x 10 m/s
X
A semicircular conducting loop containing a resistor R is shown at time t = 0. If the loop is moving with constant velocity u = 10x m/s in a time-varying magnetic flux density of
B(p, t) = 2(4-p)cos (5nt + π/4) T, where p is the radial distance from the origin in meters and t is in seconds. If the loop radius is 1 m
a.Calculate the transformer emf induced at t=0. Indicate your coordinate system of choice!
b. Calculate the total emf induced at t = 0.
c. Indicate clearly the direction of current flow within the loop at t = 0. Explain how you arrived at your answer.
Transcribed Image Text:AY www Pictured at t=0 1m u= 1 = x 10 m/s X A semicircular conducting loop containing a resistor R is shown at time t = 0. If the loop is moving with constant velocity u = 10x m/s in a time-varying magnetic flux density of B(p, t) = 2(4-p)cos (5nt + π/4) T, where p is the radial distance from the origin in meters and t is in seconds. If the loop radius is 1 m a.Calculate the transformer emf induced at t=0. Indicate your coordinate system of choice! b. Calculate the total emf induced at t = 0. c. Indicate clearly the direction of current flow within the loop at t = 0. Explain how you arrived at your answer.
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