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Initially, both metal spheres are neutral. In a charging process, 1 × 1013 electrons are removed from one metal sphere and plac...Asked by Jonathan
Initially, both metal spheres are neutral.
In a charging process, 1 × 1013 electrons are
removed from one metal sphere and placed on
a second sphere. Then the electrical poten-
tial energy associated with the two spheres is
found to be −0.061 J .
The Coulomb constant is 8.98755 ×
109 N · m2/C2 and the charge on an electron
is 1.6 × 10−19 C.
What is the distance between the two
spheres?
Answer in units of m.
I KNOW r=Kcx q1xq2/PE
But I tried using the charge of an electron -1.6E-19 for both q1 and q2, yet I still get the incorrect answer...
In a charging process, 1 × 1013 electrons are
removed from one metal sphere and placed on
a second sphere. Then the electrical poten-
tial energy associated with the two spheres is
found to be −0.061 J .
The Coulomb constant is 8.98755 ×
109 N · m2/C2 and the charge on an electron
is 1.6 × 10−19 C.
What is the distance between the two
spheres?
Answer in units of m.
I KNOW r=Kcx q1xq2/PE
But I tried using the charge of an electron -1.6E-19 for both q1 and q2, yet I still get the incorrect answer...
Answers
Answered by
bobpursley
but there is more than one electron, there are 1E13 electrons per sphere.
Answered by
Jonathan
I tried using 1E13 as q1 and -1.6E-19 as q2, and I still got it wrong...
Answered by
noob
You're stupid.. -_-
Answered by
noob
-1.6E-19 times 1E13 = q1 and q2
((8.98755x10^9)(q1)(q2))/-0.061J = the answer...
((8.98755x10^9)(q1)(q2))/-0.061J = the answer...
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