Answer:
50,000 V/m
Explanation:
The electric field between two charged metal plates is uniform.
The relationship between potential difference and electric field strength for a uniform field is given by the equation

where
is the potential difference
E is the magnitude of the electric field
d is the distance between the plates
In this problem, we have:
is the potential difference between the plates
d = 15 mm = 0.015 m is the distance between the plates
Therefore, rearranging the equation we find the strength of the electric field:

Answer:
True
Explanation:
Magnetic field lines outside of a permanent magnet always run from the north magnetic pole to the south magnetic pole. Therefore, the magnetic field lines of the earth run from the southern geographic hemisphere towards the northern geographic hemisphere.
Answer:
a) (-367231.63i , 367231.63i, 0) N/C
b) (0 , 0 , 367231.63i ) N/C
Explanation:
a)
Case x < -2.15

Case x > 2.15

Case -2.15 < x <+2.15

b)
Case x < -2.15

Case x > 2.15

Case -2.15 < x <+2.15

Answer:
|q1|/|q2| = 1/7
Explanation:
Particle 1 experiences a force F1 due to the magnetic field, B:
F1 = |q1|*v1*B
Particle 2 experiences a force F2 due to the magnetic field, B:
F2 = |q2|*v2*B
We're given that:
v1 = 7v2
Also, the force experience by both particles are equal:
F1 = F2
=> |q1|*v1*B = |q2|*v2*B
|q1|/|q2| = v2/v1
=> |q1|/|q2| = v2/7v2
=> |q1|/|q2| = 1/7
Answer:
We conclude that the total distance traveled by the object in the 4 seconds is 36 m.
Explanation:
Given
- Initial velocity u = 5.0 m/s
- Acceleration a = 2.0 m/s²
To determine
The total distance traveled by the object in the 4.0 seconds is
<u>Important Tip:</u>
We can determine the total distance traveled by the object in the 4.0 seconds by using the equation of motion such as

where
- s = distance
- u = initial velocity
- a = acceleration
- t = time
substituting u = 5.0, a = 2, and t = 4 in the formula



m
Therefore, we conclude that the total distance traveled by the object in the 4 seconds is 36 m.