How do you solve this question? The first question's answer is c) 3.0 T but I can't seem to get the right answer if I attempt use the equation emf = (BA)/t. Is t 1.25, 5, or something else? A single conducting loop with an areaof 2.0 m² rotates in a uniform magneticfield so that the induced emf has asinusoidal time dependence as shown.Determine the strength of the magnetic(a) 0.5 T(b) 2.4 T(c)(d) 7.5 TEmf₁7.5 V(b) 0.30 rad/sWhat is the period of the induced current?(a) 1.25 s(c) 3.75 s(b) 2.50 s(d) 5.00 s3.758.75AAA1.256.2511.25svtfield in which the loop rotates.3.0 TWith what angular frequency does the loop rotate?(a) 0.16 rad/s(c) 0.52 rad/s(d) 0.80 rad/s-7.5 V(e) 18.8 T13.75(e) 1.26 rad/s(e) 6.25 st (s)

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A single conducting loop with an area of 2.0 m² rotates in a uniform magnetic field so that the induced emf has a sinusoidal time dependence as shown. 7.5 V Determine the strength of the magnetic (a) 0.5 T (c) 3.0 T (b) 2.4 T (d) 7.5 T With what angular frequency does the loop rotate? (a) 0.16 rad/s (c) 0.52 rad/s (b) 0.30 rad/s Emf -7.5 V What is the period of the induced current? (a) 1.25 s (c) 3.75 s (b) 2.50 s (d) 5.00 s (d) 0.80 rad/s 1.25 field in which the loop rotates. 3.75 6.25 8.75 11.25 (e) 18.8 T 13.75 (e) 1.26 rad/s (e) 6.25 s t (s)

A single conducting loop with an area of 2.0 m² rotates in a uniform magnetic field so that the induced emf has a sinusoidal time dependence as shown. 7.5 V Determine the strength of the magnetic (a) 0.5 T (c) 3.0 T (b) 2.4 T (d) 7.5 T With what angular frequency does the loop rotate? (a) 0.16 rad/s (c) 0.52 rad/s (b) 0.30 rad/s Emf -7.5 V What is the period of the induced current? (a) 1.25 s (c) 3.75 s (b) 2.50 s (d) 5.00 s (d) 0.80 rad/s 1.25 field in which the loop rotates. 3.75 6.25 8.75 11.25 (e) 18.8 T 13.75 (e) 1.26 rad/s (e) 6.25 s t (s)

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter32: Faraday’s Law Of Induction

Section: Chapter Questions

Problem 23PQ: A square loop with side length L, mass M, and resistance R lies in the xy plane. A magnetic field B...

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