A. The vertical rectangular surface B. The slanted surface C. The entire surface of the box 3. Consider a thin, spherical shell of radius 12.0 cm with a surface charge density of 0.150 mC/m² distributed uniformly on its surface. Find the electric field: A. 7.0 cm B. 17.0 cm from the center of the charge distribution. 4. Four small spheres shown in the figure below have charges

Principles of Physics: A Calculus-Based Text
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ISBN:9781133104261
Author:Raymond A. Serway, John W. Jewett
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Chapter19: Electric Forces And Electric Fields
Section: Chapter Questions
Problem 12OQ: In which of the following contexts can Gausss law not be readily applied to find the electric field?...
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M1.2
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PDF Activity 1.2 - Electric Flux and Ga x
+
O File | C:/Users/Danica%20Martinez/Desktop/Activity%201.2%20-%20Electric%20Flux%20and%20Gauss's%20Law(1).pdf
+1
...
a Agoda G Gmail
YouTube G Maps O Translate E MODULE 4.2 Electr.
INSTRUCTIONS:
Show your complete solution to each problem on a short bond paper.
Answers must be expressed in engineering notation (when the exponent of the base 10 multiplier
is not a multiple of 3, press ENG or SHIFT+ENG, whichever the case.)
Example: 0.06N or 6.0x10-2 N must be expressed to 60x10-3 N or 60mN
1. A hemispherical surface with radiusr = 12 cm in a region of uniform electric field E = 10 V/m has its
axis aligned parallel to the direction of the field. Calculate the flux through the surface.
2. In the figure shown, the magnitude of the uniform electric
field is E = 70 kN/C. Calculate the electric flux through:
320 cm
A. The vertical rectangular surface
B. The slanted surface
C. The entire surface of the box
45.0 cm
3. Consider a thin, spherical shell of radius 12.0 cm with a surface charge density of 0.150 mC/m2
distributed uniformly on its surface. Find the electric field:
A. 7.0 cm
B. 17.0 cm from the center of the charge distribution.
4. Four small spheres shown in the figure below have charges
of g1 = -3.00 nC, q2 = 2.40 nC, g3 = 5.30 nC, and g4 = -1.80
nC. Find the net electric flux through each of the following
closed surfaces:
S2
S,
A. S,
B. S2
C. Sa
D. S4
92
S4
5. The electric field at a distance of 0.35 m from a very long line charge is 1250 N/C. Calculate the
total charge in a 6.00-cm section of such line.
11:07 am
P Type here to search
32°C Haze
A ENG
19/03/2022
Transcribed Image Text:PDF Activity 1.2 - Electric Flux and Ga x + O File | C:/Users/Danica%20Martinez/Desktop/Activity%201.2%20-%20Electric%20Flux%20and%20Gauss's%20Law(1).pdf +1 ... a Agoda G Gmail YouTube G Maps O Translate E MODULE 4.2 Electr. INSTRUCTIONS: Show your complete solution to each problem on a short bond paper. Answers must be expressed in engineering notation (when the exponent of the base 10 multiplier is not a multiple of 3, press ENG or SHIFT+ENG, whichever the case.) Example: 0.06N or 6.0x10-2 N must be expressed to 60x10-3 N or 60mN 1. A hemispherical surface with radiusr = 12 cm in a region of uniform electric field E = 10 V/m has its axis aligned parallel to the direction of the field. Calculate the flux through the surface. 2. In the figure shown, the magnitude of the uniform electric field is E = 70 kN/C. Calculate the electric flux through: 320 cm A. The vertical rectangular surface B. The slanted surface C. The entire surface of the box 45.0 cm 3. Consider a thin, spherical shell of radius 12.0 cm with a surface charge density of 0.150 mC/m2 distributed uniformly on its surface. Find the electric field: A. 7.0 cm B. 17.0 cm from the center of the charge distribution. 4. Four small spheres shown in the figure below have charges of g1 = -3.00 nC, q2 = 2.40 nC, g3 = 5.30 nC, and g4 = -1.80 nC. Find the net electric flux through each of the following closed surfaces: S2 S, A. S, B. S2 C. Sa D. S4 92 S4 5. The electric field at a distance of 0.35 m from a very long line charge is 1250 N/C. Calculate the total charge in a 6.00-cm section of such line. 11:07 am P Type here to search 32°C Haze A ENG 19/03/2022
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