A
3
C
charge moving with a velocity of
1
0
m
/
s
enters a magnetic field of strength
5
T
. If its velocity makes and angle of
3
0
o
with the field , then the Lorentz force experienced by the charge is
This section requires Javascript.
You are seeing this because something didn't load right. We suggest you, (a) try
refreshing the page, (b) enabling javascript if it is disabled on your browser and,
finally, (c)
loading the
non-javascript version of this page
. We're sorry about the hassle.
but i can't see why this question asks for the magnetic field, it i devoted by E that can be accomplished by the main equation F = q.B.v sin (30 degrees),
then from this result, we insert it at such equation like this E=F/q thus, the final result we get is: E=25N/C
Force experienced by a moving charge ( Q ) in a uniform magnetic field ( B ) with velocity ( V ) is given by: F = Q V B s i n ( A ) . . . . . . . ( i ) [ H e r e ′ A ′ = 3 0 d e g ]
Plugging the values in equation(i) gives: F = 7 5 N
The magnetic force acting on a charge is described by the equation F = q ( v × B ) , so the magnitude of the force is q v B sin θ . Plugging in the given values, we get that the answer is 3 ∗ 1 0 ∗ 5 ∗ sin 3 0 ∘ , or 7 5 .
F=Bqvsin(theta)
Problem Loading...
Note Loading...
Set Loading...
The force F between a current I and magnetic field B at an angle θ is given by: F = B I s i n θ And the current I due to a moving charge q at a velocity v is given by: I = q v = 3 × 1 0 = 3 0 A Therefore, F = B q v s i n θ = 5 × 3 0 × s i n 3 0 ∘ = 5 × 3 0 × 2 1 = 7 5 N