Confined, Uniform, Electric Field

In summary, an electron initially moving at 6.8 x 107 m/s in the positive x direction enters a region with a uniform electric field of magnitude 2.6 x 106 N/C in the negative y direction. The length of the field in the x direction is 6.2 x 10-4 meters. Neglecting the weight of the electron, the angle at which it will leave the field when measured counter-clockwise from the positive x-axis is 3.43 degrees. This is calculated using the equations y=v0yt+1/2ayt2 and L=v0xt+1/2axt2, where Fx=0, Fy=eE, ax=0, and
  • #1
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Homework Statement


An electron is originally moving at 6.8 x 107 m/s in positive x direction as it enters a region of confined, uniform, electric field. Magnitude of field is 2.6 x 106 N/C in negative y direction and its length in x direction is 6.2 x 10-4 meters. If one ignores weight of electron as a force, with what angle will electron be traveling when it leaves field when measured counter-clockwise from positive x-axis in degrees? Answer is 3.43.


Homework Equations


y=v0yt+1/2ayt2
L=v0xt+1/2axt2

The Attempt at a Solution


Fx=0
Fy=eE
ax=0
eE=meay
ay=eE/me
v0y=0 m/s
y=1/2ayt2=1/2eE/met2
L=v0t
t=L/v0
y=1/2eE/met2=1/2eE/me(L/v0)2=1/2(1.6*10-19C)(2.6*106N/C)/(9.10938188*10-31kg)(6.2*10-4m/6.8*107m/s)2=1.9*10-5m
arctan(1.9*10-5m/6.2*10-4m)
 
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  • #2
The angle with which something is traveling refers to its velocity, not its displacement.
 
  • #3
I appreciate the assistance!
 

FAQ: Confined, Uniform, Electric Field

What is a confined, uniform, electric field?

A confined, uniform, electric field is a type of electric field in which the magnitude and direction of the electric field are constant throughout a defined region of space. This means that the electric field lines are parallel and evenly spaced, creating a uniform appearance. The electric field is also confined to this defined region and does not extend beyond it.

How is a confined, uniform, electric field created?

A confined, uniform, electric field can be created by placing two parallel conducting plates close together and applying a potential difference between them. This creates an electric field between the plates that is uniform and confined to the space between them.

What are some real-life examples of a confined, uniform, electric field?

One example of a confined, uniform, electric field is the electric field inside a parallel plate capacitor. Another example is the electric field inside a particle accelerator, which uses electric fields to accelerate charged particles.

What is the significance of a confined, uniform, electric field in scientific research?

A confined, uniform, electric field is important in scientific research because it allows for precise control and manipulation of charged particles. This is useful in experiments and studies involving charged particles, such as in the field of particle physics.

How does a confined, uniform, electric field differ from other types of electric fields?

A confined, uniform, electric field differs from other types of electric fields in that it has a constant magnitude and direction throughout a defined region of space. Other types of electric fields, such as non-uniform or non-confined fields, may vary in magnitude and direction throughout space. Additionally, the confined nature of this field means that it does not extend beyond a certain region, unlike some other types of electric fields.

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