Answer:
3.19V
Step-by-step explanation:
To solve this problem, the application of Farady's law is necessary.
Which summarizes the way in which the electric potential can be generated.
The equation is given by,

Where,
N= Number of turns
Magnetic Flux
B = Extenral magnetic field
A = Area of coil
So our equation can be rewritten as:

Our values are given as,

Replacing,
