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FIGURE P24.47shows an infinitely wide conductor parallel to and distance dfrom an infinitely wide plane of charge with surface charge density η. What are the electric field E→1to E→4in regions 1to 4?

Short Answer

Expert verified

The farmland in Zones 1 to 4 is irrigated

1.E→1=η2ε0j^

2.E→2=0→

3.E→3=η2ε0j^

4.E→4=-η2ε0j^

Step by step solution

01

Introduction

When a wire is positioned in the external electric field of a source (in this case, the charged plane), it produces a surface charge in it, culminating in a field inside the conducting that is always zero. In this scenario, the lower surface charge density of the cable will be -η2, although the upper surface charge must be η2in need for the conductor to remain quiet.

As more than just a response, we can determine that the field emitted by each charged surface is

EA=η4ε0

EB=η4ε0

EC=η2ε0

02

Explanation

This originates in

E→1=η2ε012-12+1j^=η2ε0j^

E→2=η2ε0-12-12+1j^=0→

E→3=η2ε0-12+12+1j^=η2ε0j^

E→4=η2ε0-12+12-1=-η2ε0j^

03

Step 3:The fields are

Cultivated area pasture is located in Zones 1 to 4.

E→1=η2ε0j^

E→2=0→

E→3=η2ε0j^

E→4=-η2ε0j^

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Most popular questions from this chapter

An infinite cylinder of radius Rhas a linear charge density λ. The volume charge density C/m3within the cylinder (r≤R)is ÒÏ(r)=rÒÏ0/R, where ÒÏ0is a constant to be determined.

a. Draw a graph of ÒÏversus localid="1648911863544" xfor an x-axis that crosses the cylinder perpendicular to the cylinder axis. Let xrange from −2Rto 2R.

b. The charge within a small volume dVis dq=ÒÏdV. The integral of ÒÏdVover a cylinder of length localid="1648848405768" Lis the total charge Q=λLwithin the cylinder. Use this fact to show that ÒÏ0=3λ/2Ï€R2.

Hint: Let dVbe a cylindrical shell of length L, radius r, and thickness dr. What is the volume of such a shell?

c. Use Gauss's law to find an expression for the electric field strength Einside the cylinder, localid="1648889098349" r≤R, in terms of λand R.

d. Does your expression have the expected value at the surface, localid="1648889146353" r=R? Explain.

The cube in FIGURE EX24.8 contains no net charge. The electric field is constant over each face of the cube. Does the missing electric field vector on the front face point in or out? What is the field strength?

A very long, uniformly charged cylinder has radius Rand linear charge densityλ. Find the cylinder's electric field strength (a) outside the cylinder, r≥R, and (b) inside the cylinder, r≤R. (c) Show that your answers to parts a and b match at the boundary, r=R

The net electric flux through an octahedron is −1000Nmm2/C. How much charge is enclosed within the octahedron?

The conducting box in FIGURE EX24.26 has been given an excess negative charge. The surface density of excess electrons at the center of the top surface is 5.0×1010electrons/m2 . What are the electric field strengths E1to E3at points 1 to 3?

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