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In Fig. 23-33, a proton is a distance d/2directly above the center of a square of side d. What is the magnitude of the electric flux through the square? (Hint: Think of the square as one face of a cube with edge d.)

Short Answer

Expert verified

The magnitude of the electric flux through the square is3.01×10-9N.m2/C.

Step by step solution

01

The given data

  1. The Square of the side isd
  2. Proton is placed at d2distance above the square
02

Understanding the concept of Gauss law-planar symmetry

The net flux through each cube surface is given by dividing the total flux value through the cube by 6. Thus, the net flux is given using the concept of the Gauss flux theorem.

Formula:

The net flux passing through an enclosed volume, ϕnet=qε0 (1)

03

Calculation of the net flux through a square surface

To exploit the symmetry of the situation, we imagine a closed Gaussian surface in the shape of a cube, of edge length d, with a proton of chargee=1.6×10-19Csituated at the inside center of the cube.

The cube has six faces, and we expect an equal amount of flux through each face. Thus, the flux through the square is one-sixth of that the total flux of equation (1) and is given by:

ϕ=1.6×10-19C6×(8.85×10-12C2/N.m2)=3.01×10-9N.m2/C

Hence, the value of the flux is 3.01×10-9N.m2/C.

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Most popular questions from this chapter

Figure 23-34 shows a closed Gaussian surface in the shape of a cube of edge length 2.00 m. It lies in a region where the non-uniform electric field is given by E→=[(3.00x+4.00)i^+6.00j^+7.00k^]N/C, with xin meters. What is the net charge contained by the cube?

A thin-walled metal spherical shell of radius a has a charge. Concentric with it is a thin-walled metal spherical shell of radius and charge . Find the electric field at points a distance r from the common center, where

(a) r<a,

(b) a<r<b,and

(c) r>b.

(d) Discuss the criterion you would use to determine how the charges are distributed on the inner and outer surfaces of the shells.

A surface has the area vectorA→=(2i^+3j^)m2. What is the flux of a uniform electric field through the area if the field is (a)E→=4i^N/Cand (b)E→=4j^N/C.

An electron is shot directly toward the center of a large metal plate that has surface charge density -2.00×10-6C/m2. If the initial kinetic energy of the electron isand if the electron is1.60×10-17J to stop (due to electrostatic repulsion from the plate) just as it reaches the plate, how far from the plate must the launch point be?

In Fig. 23-44, two large, thin metal plates are parallel and close to each other. On their inner faces, the plates have excess surface charge densities of opposite signs and magnitude7.0×10-22C/m2. In unit-vector notation, what is the electric field at points (a) to the left of the plates, (b) to the right of them, and (c) between them?

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