Q4. In Gauss's law, what can we conclude if we have two different Gaussian surfaces, as shown in Figure Q4? i. the outward flux density of D through a closed Gaussian surface S is equal to the enclosed charge Qene in that surface. ii. the outward flux density of D through an open Gaussian surface S is equal to the enclosed charge Qene in that surface. iii.Both Gaussian surfaces can be used iv. D due to Gaussian surface A > D due to Gaussian surface B v. D due to Gaussian surface B > D due to Gaussian surface A fa i, ii, iii b. i. iii, v c. ii, iii, iv d. i, ii, v D R O Gaussian surface: Figure Q4 Electric field > E= V/d E-01 &

Q4. In Gauss's law, what can we conclude if we have two different Gaussian surfaces, as shown in Figure Q4? i. the outward flux density of D through a closed Gaussian surface S is equal to the enclosed charge Qene in that surface. ii. the outward flux density of D through an open Gaussian surface S is equal to the enclosed charge Qene in that surface. iii.Both Gaussian surfaces can be used iv. D due to Gaussian surface A > D due to Gaussian surface B v. D due to Gaussian surface B > D due to Gaussian surface A fa i, ii, iii b. i. iii, v c. ii, iii, iv d. i, ii, v D R O Gaussian surface: Figure Q4 Electric field > E= V/d E-01 &

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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