Question

Consider two widely separated conducting spheres, 1 and 2, the second having three times the diameter...

Consider two widely separated conducting spheres, 1 and 2, the second having three times the diameter of the first. The smaller sphere initially has a positive charge q = 5.00

Homework Answers

Answer #1

Because the spheres are "widely separated" the field of one will not effect the charge distribution of the other and the charge will distribute on each sphere uniformly. When connected with a wire the charge will flow so that each sphere is at the same potential, because the connection makes them a single conductor and conductors are equipotential surfaces.

You can use the formula for the potential of a spherical conductor of radius "R" , kq/R, for each and set them equal;

kq1/R1 = kq2/R2

Given R2 = 3R1 ,gives;

kq1/R1 = kq2/3R1

q1 = q2/3

In addition you know the total charge must equal 5.00

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Consider two widely separated conducting spheres, 1 and 2, the second having three times the diameter...
Consider two widely separated conducting spheres, 1 and 2, the second having three times the diameter of the first. The smaller sphere initially has a positive charge q = 5.00×10-6 C, and the larger one is initially uncharged. You now connect the spheres with a long thin wire. How are the final potentials V1 and V2 of the spheres related? Find the final charges q1 and q2. What is the ratio of the final surface charge density of sphere 1...
Three identical metallic conducting spheres carry the following charges: q 1 1 = +8.20 μC, q...
Three identical metallic conducting spheres carry the following charges: q 1 1 = +8.20 μC, q 2 2 = +8.20 μC, and q 3 3 = −3.60 μC. The spheres that carry the charges q 1 1 and q 2 2 are brought into contact. Then they are separated. After that, one of those two spheres is brought into contact with the third sphere that carries the charge q 3 3; those two are then separated as well. What is...
Two identical conducting spheres (#1 and #2) carry charges Q and 3Q respectively. They are separated...
Two identical conducting spheres (#1 and #2) carry charges Q and 3Q respectively. They are separated by a distance r much larger than their diameters. Another identical conducting sphere (#3) is uncharged. Sphere #3 is first touched to #1, then to #2, and finally removed. As a result, the Coulomb force between #1 and #2, which was originally F, becomes: 1-7F/8 2-6F/15 3-3F/14 4-9F 5-7F/24
1-The figure below shows two identical (and small) conducting spheres connected to each other by a...
1-The figure below shows two identical (and small) conducting spheres connected to each other by a string of length L = 3.0 meters. Presently the charge on each small sphere is Q = +0.4 mC, and the string will break when the tension in the string equals or exceeds 1000N. A charge q is now placed on the small sphere on the right. If the string connecting the two spheres is conducting, determine the minimum value of q so that...
Two conducting spheres are separated by 1.5 cm. One sphere is charged such that its total...
Two conducting spheres are separated by 1.5 cm. One sphere is charged such that its total charge is 32 nC. The other sphere is electrically neutral (has no net charge). A) Is there an apparent charge distribution on the neutral sphere due to the charged sphere? Qualitatively answer this using diagrams and terminology such as charge by induction, charge by conduction, dipole, octopole, etc. B) Imagine the spheres were allowed to touch for a brief moment and then separated back...
Two tiny conducting spheres are charged and set 4.1 mm apart. The first sphere has a...
Two tiny conducting spheres are charged and set 4.1 mm apart. The first sphere has a charge of 6.3 mC on it, and feels a force of 1800 N towards the second sphere. a. Does the second sphere have a positive or negative charge? Why? b. What is the magnitude of the charge on the second sphere? [0.53 mC]
A) Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of...
A) Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of +4q. Sphere B carries a charge of -3q. Sphere C carries no net charge. Spheres A and B are touched together and then separated. Sphere C is then touched to sphere A and separated from it. Last, sphere C is touched to sphere B and separated from it. For the following questions, express your answers in terms of q. How much charge ends up...
Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of +9q....
Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of +9q. Sphere B carries a charge of -q. Sphere C carries no net charge. Spheres A and B are touched together and then separated. Sphere C is then touched to sphere A and separated from it. Lastly, sphere C is touched to sphere B and separated from it. (a) What is the ratio of the final charge on sphere C to q? What is the...
Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of -2q....
Consider three identical metal spheres, A, B, and C. Sphere A carries a charge of -2q. Sphere B carries a charge of +3q. Sphere C carries no net charge. Spheres A and B are touched together and then separated. Sphere C is then touched to sphere A and separated from it. Lastly, sphere C is touched to sphere B and separated from it. (a) How much charge ends up on sphere A? q (b) How much charge ends up on...
There are two identical, positively charged conducting spheres fixed in space. The spheres are 34.8 cm...
There are two identical, positively charged conducting spheres fixed in space. The spheres are 34.8 cm apart (center to center) and repel each other with an electrostatic force of ?1=0.0675 N . A thin conducting wire connects the spheres, redistributing the charge on each sphere. When the wire is removed, the spheres still repel, but with a force of ?2=0.115 N . The Coulomb force constant is ?=1/(4??0)=8.99×109 N⋅m2/C2 . Using this information, find the initial charge on each sphere,...