Chapter 13: Q36P (page 542)
A charged particle located at the origin creates an electric field of at a location . What is the particle鈥檚 charge?
Short Answer
The charge on the particle is .
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Chapter 13: Q36P (page 542)
A charged particle located at the origin creates an electric field of at a location . What is the particle鈥檚 charge?
The charge on the particle is .
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You make repeated measurements of the electric fielddue to a distant charge, and you find it is constant in magnitude and direction. At timerole="math" localid="1656916621351" your partner moves the charge. The electric field doesn鈥檛 change for a while, but at timeyou observe a sudden change. How far away was the charge originally?
If we triple the distance d, by what factor is the force on the point charge due to the dipole in Figure 13.60 reduced? (Note that the factor is smaller than one if the force is reduced and larger than one if the force is increased.)

In a hydrogen atom in its ground state, the electron is on average a distance of about from the proton. What is the magnitude of the electric field due to the proton at this distance from the proton?
What is the relationship between the terms 鈥渇ield鈥 and 鈥渇orce鈥? What are their units?
Consider Figure 13.59. Assume that the dipole is fixed in position. (a) What is the direction of the electric field at location A due to the dipole? (b) At location B? (c) If an electron were placed at location A, in which direction would it begin to move? (d) If a proton were placed at location B, in which direction would it begin to move? (e) Now suppose that an electron is placed at location A and held there, while the dipole is free to move. When the dipole is released, in what direction will it begin to move?
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