Question 43Which of the following cases has the greatest electric flux?a flat oval surface with vector area AE = (3.0 N/C) - (2.0 N/C) 3a flat rectangular surface with vector A = (4.0 m²) i (3.0 m²) 3 in a uniform electric field ofEÉnone of the given choices= (2.0 N/C)i + (3.0 N/C) ja flat square surface with vector area A(2.0 m²) i (3.0 m²) 3 in a uniform electric fielda flat circular surface with vector area ADeman(3.0 m²) i in a uniform electric field E 5(2.0 N/C) j-(2.0 m²) in a uniform electric field of E = (3.0 N/C) i – (2.0 N/C) 3

Given area and electric field in vector form along one direction i.,e Angle between them us 0°

Question 43 Which of the following cases has the greatest electric flux? a flat oval surface with vector area A (3.0 N/C) - (2.0 N/C) 3 E P = a flat rectangular surface with vector A E = (2.0 N/C)i + (3.0 N/C) 3 O none of the given choices (2.0 m²) i (3.0 m²) 3 in a uniform electric field - = (4.0 m²) i (3.0 m²) 3 in a uniform electric field of a flat square surface with vector area A = Ả = (3.0m) i i in a uniform electric field E (2.0 N/C) j O a flat circular surface with vector area A = = (2.0 m²) 2 in a uniform electric field of E = (3.0 N/C) - (2.0 N/C) 3

Question 43 Which of the following cases has the greatest electric flux? a flat oval surface with vector area A (3.0 N/C) - (2.0 N/C) 3 E P = a flat rectangular surface with vector A E = (2.0 N/C)i + (3.0 N/C) 3 O none of the given choices (2.0 m²) i (3.0 m²) 3 in a uniform electric field - = (4.0 m²) i (3.0 m²) 3 in a uniform electric field of a flat square surface with vector area A = Ả = (3.0m) i i in a uniform electric field E (2.0 N/C) j O a flat circular surface with vector area A = = (2.0 m²) 2 in a uniform electric field of E = (3.0 N/C) - (2.0 N/C) 3

University Physics Volume 2

18th Edition

ISBN:9781938168161

Author:OpenStax

Publisher:OpenStax

Chapter6: Gauss's Law

Section: Chapter Questions

Problem 22P: Find the electric flux through a rectangular area 3 cm x 2 cm between parallel plates where there is...

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Find the electric flux through a rectangular area 3 cm x 2 cm between parallel plates where there is a constant electric field of 30 N/C for the following orientations of the area: (a) parallel to the plates, (b) perpendicular to the plates, and (c) the normal to the area making a 300 angle with the direction of the electric field. Note that this angle can also be given as 180o + 30o.
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