Answer Qn 1 & 2 Learning Session Worksheet Phys 212 – Week 5Exercises:The figures below show different surfaces in the presence ofdifferent electric fields. Determine the electric flux F in eachcase, briefly showing your reasoning.1591. Rectangle of area A with a uniform electric field Eoriented at an angle of 15° with respect to the normalto the surface of the rectangle.FLUX =2. Rectangle of area A with a uniform electric field Eoriented parallel to the surface of the rectangle.FLUX =tHA A A

The electric field is E The area of the plate is A The electric field oriented at an angle of 15…

1. Rectangle of area A with a uniform electric field Ē oriented at an angle of 15° with respect to the normal to the surface of the rectangle. FLUX = 2. Rectangle of area A with a uniform electric field Ë oriented parallel to the surface of the rectangle. FLUX =

1. Rectangle of area A with a uniform electric field Ē oriented at an angle of 15° with respect to the normal to the surface of the rectangle. FLUX = 2. Rectangle of area A with a uniform electric field Ë oriented parallel to the surface of the rectangle. FLUX =

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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Three chargesbare arranged on a rectangle as shown below. What is the net electric field at P2? Calculate the magnitude and the direction
What is the net electric flux through the cylinder (a) shown in (Figure 1)? What is the net electric flux through the cylinder (b) shown in (Figure 2)? Express your answer in terms of the variables E, R, and the constant π.
Pls, help me with the following. make sure your answer is correct, thank you (Figure 1) shows cross sections of five closed surfaces S1�1, S2�2, and so on. Assume that q1�1 = 4.0 μC�C , q2�2 = 8.2 μC�C , q3�3 = 1.5 μC�C , q4�4 = 8.4 μC�C , q5�5 = -7.2 μC�C , and q6�6 = -9.7 μC�C . Part B. Find the net electric flux passing through the surface S2�2. Express your answer in newton meters squared per coulomb. Part E. Find the net electric flux passing through the surface S5�5. Express your answer in newton meters squared per coulomb.
Given the diagram where q1 is the positive and q2 is the negative charge, while q0 is (0,d), answer the following: a.) What is the net electric field at q0? b.) What would be the electric force acting on charge q0?
Use GFSA (Given, Find, Solution, and Answer) on the given space below. Encircle your final answer, write it in scientific notation with 2 decimal places (if possible). Determine the electric flux for a Gaussian surface that contains 100 million electrons.
Part A through part D, please Charge is distibuted uniformly over each of two spherical volumes with radius R. One sphere of charge is centered at the origin and the other at x=2R (Figure 1). Let left-hand sphere have positive charge Q and let the right-hand sphere have negative charge -Q . Part A Find the magnitude of the net electric field due to these two distributions of charge at the point x=0 on the x-axis. Express your answer in terms of the variables Q , R , and appropriate constants. Part B Find the magnitude of the net electric field at the point x=R/2 on the x-axis. Express your answer in terms of the variables Q , R , and appropriate constants. Part C Find the magnitude of the net electric field at the point x=R on the x-axis. Express your answer in terms of the variables Q, R , and appropriate constants. Part D Find the magnitude of the net electric field at the point x=3Ron the x-axis. Express your answer in terms of the variables Q, R, and appropriate constants.
Directions: Solve the following problems. Show your complete solutions. Round off your answers into 3 significant figures. 2. An infinitely long line of particles carries a charge of 0.600 nC along a wire whose length is 1.30 m. What is the electric field 0.250 m from the line of charge? 3.A uniformly charged conducting sphere of 1.5-m diameter has a surface charge density of 7.6 x 10-6 C/m^2. a. What is the net electric field? b. What is the net electric flux?
F3.) For diagram A, What is the magnitude of the totalelectric field, at point P? (round to the proper sigfigs)
please do not copy answers from existing problems here and online. answer completely. A ring-shaped conductor with radius a = 2.50 cm has a total positive charge Q = +0.125 nC uniformly distributed around it, as shown The center of the sign is at the origin of coordinates O. (a) What is the electric field (magnitude and direction) at point P, which is on the x-axis at x = 40.0 cm? (b) A point charge q = -2.50 microC is placed at the point P described in part (a). What are the magnitude and direction of the force exerted by the charge q on the ring?
You have a very (infinitely) long solid conducting cylinder with length L, base radius R, and total charge +Q. (a) Use Gauss’s law to find the electric field vector inside and outside the cylinder. Explain your reasoning. You can give a verbal description of the electric field vector direction. (b) Similar to how we found the electric field outside a conducting sphere to look like that of a point particle, what does the electric field outside the cylinder look like? (c) Would the electric field inside the cylinder stay the same if the cylinder was instead insulating and uniformly charged? Explain why or why not?
Activity 1 – Application of Electric Flux and Gauss’s Law Solve the following word problems. Show complete solutions to your answers. 5. What must be the charge of an isolated spherical conductor 30.0 cm in diameter to produce an electric field of 150 N/C just outside the surface?
Consider a wire made of a good conductor with a length, L, radius, R, and a total charge of +Q. a. What assumptions can be made about area if the wire is very long? ? >> ? (Hint: recall surface area of a cylinder) b. Calculate the Electric Field at the surface of the conducting wire. Convert the final answer to units of “k”. Is this the same as the Electric Field of a point charge or a conducting sphere? Distance (r) Electric Field Strength (E) c. Calculate the Electric Flux at the surface of the wire. How does the Electric Flux of the wire compare the Electric Flux of the sphere? Why? d. Calculate the Electric Field strength at a distance, a (such that a > 0) away from the conducting wire. e. Calculate the Electric Flux at a distance, a (such that a > 0) How does the Electric Flux compare to the Electric Flux calculated in part c? f. What should be the Electric Field inside the wire?