Physics, asked by samm143, 1 year ago

a long wire of linear charge density lambda passes through a cube of side l in such a manner that flux through it is maximum. now the position of wire is changed in such a manner that flux is minimum . the ratio of maximum flux to minimum flux is???


samm143: yeah.....u r ri8
JinKazama1: Okz, I will solve this question till tommorow
samm143: okkk thank u
samm143: u solved it or not???
JinKazama1: oh Sorry. I forget
JinKazama1: Well Should I answer with √3 :1 or 4√3:1 ?
samm143: will u please do it for me when u will be free??
JinKazama1: OK, I am doing now
samm143: root under 3 : 1
JinKazama1: Done√√

Answers

Answered by JinKazama1
49
Final Answer : √3 : 1

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samm143: yeah i got it......
samm143: thank u so much
JinKazama1: Yep Enjoy √√
samm143: hmm
Answered by aburaihana123
0

The ratio of maximum flux to minimum flux is \sqrt{L^{2}+ B^{2}+ H^{2} } : H

Explanation:

Given: A long wire of linear charge density lambda passes through a cube of side

To find:  The ratio of maximum flux to minimum flux

Formula used:  Q = \frac{q}{e_{0} }

Solution:

A long wire of linear charge density lambda passes through a cube of side l in such a manner that flux through it is maximum.

 Q = \frac{q}{e_{0} }

Maximum flux occurs diagonally,

Q_{max}  = \frac{\sqrt{L^{2}+ B^{2}+ H^{2} } }{E_{0} }

Minimum flux occurs when height equals length

Q_{min}  = \frac{H}{E_{0} }

The ratio of maximum by minimum flux is given by

\frac{Q_{max} }{Q_{min} } =\frac{\frac{\sqrt{L^{2} +B^{2}+ H^{2} } }{E_{0} } }{\frac{H}{E_{0} } }

\frac{Q_{max} }{Q_{min} }  = \frac{\sqrt{L^{2}+ B^{2}+ H^{2} } }{H}

Final answer:

The ratio of maximum flux to minimum flux is \sqrt{L^{2}+ B^{2}+ H^{2} } : H

#SPJ2

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