Electric potential is given as V=5.4sinecos/r2 (V/m) in a medium. Calculate the work done (in µJ) in moving a Q1=12.9 (µC) charge from point A(r= 1,0=30°,0=120°) to B(r=4,0=90°,0=60°) whichare given in spherical coordinates.O a. 21.55O b. 17.63O . 19.59O d. 23.51О е. 15.67

Electric potentialis given by : V = 5.4×Sinθ×cosφr2 VmCharge (Q1) = 12.9×10-6 Joules

Electric potential is given as V=5.4sin@cos®/r² (V/m) in a medium. Calculate the work done (in µJ) in moving a Q1=12.9 (µC) charge from point A(r=1,0=30°,P=120°) to B(r=4,8=90°,0=60°) which are given in spherical coordinates. O a. 21.55 O b. 17.63 O . 19.59 O d. 23.51 O e. 15.67

Electric potential is given as V=5.4sin@cos®/r² (V/m) in a medium. Calculate the work done (in µJ) in moving a Q1=12.9 (µC) charge from point A(r=1,0=30°,P=120°) to B(r=4,8=90°,0=60°) which are given in spherical coordinates. O a. 21.55 O b. 17.63 O . 19.59 O d. 23.51 O e. 15.67

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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Electric Charges and Fields

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Question

Electric potential is given as V=5.4sinecos/r2 (V/m) in a medium. Calculate the work done (in µJ) in moving a Q1=12.9 (µC) charge from point A(r= 1,0=30°,0=120°) to B(r=4,0=90°,0=60°) which
are given in spherical coordinates.
O a. 21.55
O b. 17.63
O . 19.59
O d. 23.51
О е. 15.67

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