Please solve sub parts A,B,C and no reject. Im needed min in 30 minutes thank u 1. A thin plate of infinite area has a charge density of5 x 10-12 C/m². This plate is at x = 0 m and is perpendicularto the x-axis. The electric permittivity of vacuum isEo = 8.85 x 10-12 c²/Nm2A. What is the electric field at x = 0.2 mAnswer : .. N/CB. If the electric potential at x = 0 is 50V, what is the electricpotential at x = 0.2 m ?Answer : .. VC. How much work is done by the electric field to move an electriccharge Q-2μc and η( 0.3,0.2 ) m tor2 = (0.2, –0.2 ) m?Answer :x 10-8)-..

Answered: Image /qna-images/answer/35126260-72a8-439b-b302-3b87ba2a59f0.jpg

. A thin plate of infinite area has a charge density of 5 x 10-12 C/m². This plate is at x = 0 m and is perpendicular to the x-axis. The electric permittivity of vacuum is Eo = 8.85 x 10-12 c² /Nm² A. What is the electric field at x = 0.2 m Answer : ... N/C 3. If the electric potential at x = 0 is 50V, what is the electric potential at x = 0.2 m ? Answer : .. V C. How much work is done by the electric field to move an electric charge Q = -2µc and r = (0.3,0.2) m to (0.2, –0.2 ) m? Answer : ... x 10-81

. A thin plate of infinite area has a charge density of 5 x 10-12 C/m². This plate is at x = 0 m and is perpendicular to the x-axis. The electric permittivity of vacuum is Eo = 8.85 x 10-12 c² /Nm² A. What is the electric field at x = 0.2 m Answer : ... N/C 3. If the electric potential at x = 0 is 50V, what is the electric potential at x = 0.2 m ? Answer : .. V C. How much work is done by the electric field to move an electric charge Q = -2µc and r = (0.3,0.2) m to (0.2, –0.2 ) m? Answer : ... x 10-81

Physics for Scientists and Engineers, Technology Update (No access codes included)

9th Edition

ISBN:9781305116399

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter25: Electric Potential

Section: Chapter Questions

Problem 25.20P: At a certain distance from a charged particle, the magnitude of the electric field is 500 V/m and...

See similar textbooks

Similar questions

At a certain distance from a charged particle, the magnitude of the electric field is 500 V/m and the electric potential is 3.00 kV. (a) What is the distance to the particle? (b) What is the magnitude of the charge?
What is the potential 0.530 x 10-10 m from a proton (the average distance between the proton and electron in a hydrogen atom)?
The electric field strength between two parallel conducting plates separated by 4.00 cm is 7.50104 V/m. (a) What is the potential difference between the plates? (b) The plate with the lowest potential is taken to be zero volts. What is the potential 1.00 cm from that plate and 3.00 cm from the other?
Your friend gets really excited by the idea of making a lightning rod or maybe just a sparking toy by connecting two spheres as shown in Figure 7.39, and making R2so small that the electric field is greater than the dielectric strength of air, just from the usual 150 V/m electric field near the surface of the Earth. If R1is 10 cm. how small does R2to be, and does this seem practical? (Hint: recall the calculation for electric field at the surface of a conductor from Gauss's Law.)
Given two particles with 2.00-C charges as shown in Figure P25.19 and a particle with charge q = 1.28 10-18 C at the origin, (a) what is the net force exerted by the two 2.00-C; charges on the charge q? (b) What is the electric field at the origin due to the two 2.00-C particles? (c) What is the electric potential at the origin due to the two 2.00-C particles?
Two 5.00-nC charged particles are in a uniform electric field with a magnitude of 625 N/C. Each of the particles is moved from point A to point B along two different paths, labeled in Figure P26.65. a. Given the dimensions in the figure, what is the change in the electric potential experienced by the particle that is moved along path 1 (black)? b. What is the change in the electric potential experienced by the particle that is moved along path 2 (red)? c. Is there a path between the points A and B for which the change in the electric potential is different from your answers to parts (a) and (b)? Explain. FIGURE P26.65 Problems 65, 66, and 67.
A particle with charge +q is at the origin. A particle with charge 2q is at x = 2.00 m on the x axis. (a) For what finite value(s) of x is the electric field zero? (b) For what finite value(s) of x is the electric potential zero?
A simple and common technique for accelerating electrons is shown in Figure 7.46, where there is a uniform electric field between two plates. Electrons are released, usually from a hot filament, near the negative plate, and there is a small hole in the positive plate that allows the electrons to continue moving, (a) Calculate the acceleration of the electron if the field strength is 2.50104 N/C . (b) Explain why the electron will not be pulled back to the positive plate once it moves through the hole. Figure 7.46 Parallel conducting plates with opposite charges on them create a relatively uniform electric field used to accelerate electrons to the right. Those that go through the hole can be used to make a TV or computer screen glow or to produce X- rays.
A filament running along the x axis from the origin to x = 80.0 cm carries electric charge with uniform density. At the point P with coordinates (x = 80.0 cm, y = 80.0 cm), this filament creates electric potential 100 V. Now we add another filament along the y axis, running from the origin to y = 80.0 cm. carrying the same amount of charge with the same uniform density. At the same point P, is the electric potential created by the pair of filaments (a) greater than 200 V, (b) 200 V, (c) 100 V, (d) between 0 and 200 V, or (e) 0?
An electron is at the origin, (a) Calculate the electric potential VA at point A, x = 0.250 cm. (b) Calculate the electric potential VB at point B, x = 0.750 cm. What is the potential difference VB VA? (c) Would a negatively charged particle placed at point A necessarily go through this same potential difference upon reaching point B? Explain.
Figure CQ16.3 shows equipotential contours in the region of space surrounding two charged conductors. Find (a) the work WAB in electron volts done by the electric force on a proton that moves from point A to point B. Similarly, find (b) WAC, (c) WAD, and (d) WAE. Figure CQ16.3
The two charges in Figure P25.14 are separated by d = 2.00 cm. Find the electric potential at (a) point .A and (b) point B, which is halfway between the charges.