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Four charges are placed in three-dimensional space. The charges have magnitudes \(+3 q,-q,+2 q,\) and \(-7 q .\) If a Gaussian surface encloses all the charges, what will be the electric flux through that surface?

Short Answer

Expert verified
Question: Determine the electric flux through a Gaussian surface enclosing charges of +3q, -q, +2q, and -7q. Answer: Electric Flux (Φ_E) = (-1q) / ε₀

Step by step solution

01

Determine the net charge enclosed within the Gaussian surface

To find the net charge enclosed within the Gaussian surface, we add up all the individual charges. So, for this case: Net charge = +3q - q + 2q - 7q
02

Simplify the net charge equation

Now, let's simplify the equation from Step 1: Net charge = 3q - q + 2q - 7q = (-1)q Therefore, the net charge enclosed within the Gaussian surface is -(1)q.
03

Apply Gauss's Law

Gauss's Law states that the electric flux through a Gaussian surface (Φ_E) is related to the net charge (Q) inside the surface and the electric constant (ε₀) as follows: Φ_E = Q_enclosed / ε₀ In this exercise, the net charge (Q) is -(1)q.
04

Calculate the electric flux

We can now substitute our values into Gauss's Law and find the electric flux: Φ_E = (-1q) / ε₀ We can't simplify this expression any further because the question only asked for the electric flux in terms of q. Therefore, Electric Flux (Φ_E) = (-1q) / ε₀

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Most popular questions from this chapter

In order to use Gauss's Law to calculate the electric field created by a known distribution of charge, which of the following must be true? a) The charge distribution must be in a nonconducting medium. b) The charge distribution must be in a conducting medium. c) The charge distribution must have spherical or cylindrical symmetry. d) The charge distribution must be uniform. e) The charge distribution must have a high degree of symmetry that allows assumptions about the symmetry of its electric field to be made.

A charge per unit length \(+\lambda\) is uniformly distributed along the positive \(y\) -axis from \(y=0\) to \(y=+a\). A charge per unit length \(-\lambda\) is uniformly distributed along the negative \(y\) -axis from \(y=0\) to \(y=-a\). Write an expression for the electric field (magnitude and direction) at a point on the \(x\) -axis a distance \(x\) from the origin.

A solid nonconducting sphere has a volume charge distribution given by \(\rho(r)=(\beta / r) \sin (\pi r / 2 R) .\) Find the total charge contained in the spherical volume and the electric field in the regions \(rR .\) Show that the two expressions for the electric field equal each other at \(r=R\).

How is it possible that the flux through a closed surface does not depend on where inside the surface the charge is located (that is, the charge can be moved around inside the surface with no effect whatsoever on the flux)? If the charge is moved from just inside to just outside the surface, the flux changes discontinuously to zero, according to Gauss's Law. Does this really happen? Explain.

Electric dipole moments of molecules are often measured in debyes (D), where \(1 \mathrm{D}=3.34 \cdot 10^{-30} \mathrm{C} \mathrm{m}\). For instance, the dipole moment of hydrogen chloride gas molecules is \(1.05 \mathrm{D}\). Calculate the maximum torque such a molecule can experience in the presence of an electric field of magnitude \(160.0 \mathrm{~N} / \mathrm{C}\)

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