Nuclear fusion reactions require that positively charged nuclei be brought into close proximity, against the electrostatic repulsion. As a simple example, suppose a proton is fired at a second, stationary proton from a large distance away. What kinetic energy must be given to the moving proton to get it to come within 1.00e10-15 m of the target? Assume that there is a head-on collision and that the target is fixed in place.

Ok, so I'm thinking to use:

KE=U
Ke=-qV=-q*k*q/r
=-1.602e-19*8.99e9*1.602e-19/1.00e-15
= 2.31e-13
=1.44MeV

Does that make sense? Am I doing something wrong?

2 answers

Btw I multiplyed 2.31e-13 with 6.24e18 to get the final answer in MeV.
I didn't check calcs, but it it the correct method.
Similar Questions
  1. The drawing shows a person holding two negatively charged balloons.What is most likely to happen if one of the balloons is
    1. answers icon 1 answer
    1. answers icon 1 answer
  2. The drawing shows a person holding two negatively charged balloons.What is most likely to happen if one of the balloons is
    1. answers icon 19 answers
  3. Nuclear Processes Unit Test17 of 1817 of 18 Items Question Nuclear reactions can be written out in equation form with
    1. answers icon 1 answer
more similar questions