Two coils are wound around the same cylindrical form. When the current in the first coil is decreasing at a rate of -0.240 A/s, the induced emf in the second coil has a magnitude of 1.60x10-3 V Part B If the second coil has 29 turns, what is the flux through each turn when the current in the first coil equals 1.25 A? Express your answer in webers. + = 2.9x10-4 Wb Part C If the current in the second coil increases at a rate of 0.365 A/s, what is the magnitude of the induced emf in the first coil? Express your answer in volts. VO AEo ? E = V

icon
Related questions
Question

I only need part C, thank you. 7

Two coils are wound around the same cylindrical form. When
the current in the first coil is decreasing at a rate of
-0.240 A/s, the induced emf in the second coil has a
Part B
magnitude of 1.60x10-3 V.
If the second coil has 29 turns, what is the flux through each turn when the current in the first coil equals 1.25 A?
Express your answer in webers.
$ = 2.9x10-4 Wb
Part C
If the current in the second coil increases at a rate of 0.365 A/s, what is the magnitude of the induced emf in the first coil?
Express your answer in volts.
να ΑΣφ
E =
V
Transcribed Image Text:Two coils are wound around the same cylindrical form. When the current in the first coil is decreasing at a rate of -0.240 A/s, the induced emf in the second coil has a Part B magnitude of 1.60x10-3 V. If the second coil has 29 turns, what is the flux through each turn when the current in the first coil equals 1.25 A? Express your answer in webers. $ = 2.9x10-4 Wb Part C If the current in the second coil increases at a rate of 0.365 A/s, what is the magnitude of the induced emf in the first coil? Express your answer in volts. να ΑΣφ E = V
Expert Solution
trending now

Trending now

This is a popular solution!

steps

Step by step

Solved in 3 steps with 3 images

Blurred answer