Then, one can take the limit as the length a tends toward infinity to obtain the much 1 simpler expression E = 2TE T Here, we have transitioned from a distance r to the side of the wire (in the x-y plane) to a more general, radial distance out from the wire in any plane (not just the r-y plane). This same simpler equation can be very easily obtained by applying Gauss' Law using an appropriate Gaussian surface that surrounds part of an infinitely long, charged wire. Find this derivation (in a book or online) and rewrite it below. Add verbal explanations to take the reader through the derivation, equation by equation.
Then, one can take the limit as the length a tends toward infinity to obtain the much 1 simpler expression E = 2TE T Here, we have transitioned from a distance r to the side of the wire (in the x-y plane) to a more general, radial distance out from the wire in any plane (not just the r-y plane). This same simpler equation can be very easily obtained by applying Gauss' Law using an appropriate Gaussian surface that surrounds part of an infinitely long, charged wire. Find this derivation (in a book or online) and rewrite it below. Add verbal explanations to take the reader through the derivation, equation by equation.
Related questions
Question

Transcribed Image Text:4. The electric field near a charged, long, narrow, wire (think of monofilament, fishing line) was
hinted at in homework 01 by solving a source charge integration problem. The electric field
to the side of a charged, narrow wire (or rod) of length 2a was found to be
1
xdy
Q
2a
1
B = 47², (^) (2² +2² ²2² = 425, (204) (2√2² + 2²
Απερ
(1).
3/2
ATTE
a
1
Απε
simpler expression E =
Q
o(x√x² + a²
Then, one can take the limit as the length a tends toward infinity to obtain the much
20₁
2TE T
r. Here, we have transitioned from a distance r to the side
of the wire (in the x-y plane) to a more general, radial distance out from the wire in any
plane (not just the z-y plane). This same simpler equation can be very easily obtained by
applying Gauss' Law using an appropriate Gaussian surface that surrounds part of an
infinitely long, charged wire. Find this derivation (in a book or online) and rewrite it below.
Add verbal explanations to take the reader through the derivation, equation by equation.
Expert Solution

Step 1
Gauss's law
Gauss's law states that, the total flux associated with the closed surface is times the charge enclosed by that closed surface.
here, q=charge
E=Electric field
ds=area
Step by step
Solved in 2 steps with 1 images
