Work to move Electron & Nuetron

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Homework Help Overview

The problem involves calculating the minimum work required to move a proton, an alpha particle, an electron, and a neutron, which are positioned at the corners of a square with a side length of 4.00×10^-10 m, far away from each other. The context includes considerations of electrostatic interactions among charged particles.

Discussion Character

  • Exploratory, Assumption checking

Approaches and Questions Raised

  • Participants express uncertainty about the specific goal of the problem and seek clarification on what is being asked. There are questions regarding the relevance of kinetic energy in this context and requests for guidance on applicable equations.

Discussion Status

The discussion is ongoing, with participants questioning the necessity of considering kinetic energy and exploring the energy required to separate the charged particles. Some have reiterated the need for an equation to approach the problem.

Contextual Notes

There is a focus on the electrostatic potential energy involved in moving the particles apart, and participants are navigating the assumptions related to the configuration of charged particles.

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Homework Statement


A proton, an alpha particle, an electron, and a neutron are at rest at the corners of a square whose side length is 4.00×10^-10 m with the electron and neutron at opposite corners.

How minimum an amount of work must be done to move the particles far from each other?

Homework Equations



Use 8.85×10^-12 F/m for the permittivity of free space and 1.60×10^-19 C for the charge on an electron.

KE_{i} = PE_{f}

\frac {1} {2} * m_{p} * v_{i}^2 = \frac {1} {4*pi*8.85*10^{-12}} * \frac {Q^2} {R}


The Attempt at a Solution



I'm not exactly sure what we're trying to solve for. I was wondering if someone could clarify the problem
 
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You do not have to consider K.E. here.
THere are oppositely charged particles near each other. HOW much energy is required to separate this configuration from the present state to a new state where al charges are inf. far away from each other.
 
robb_ said:
You do not have to consider K.E. here.
THere are oppositely charged particles near each other. HOW much energy is required to separate this configuration from the present state to a new state where al charges are inf. far away from each other.

I'm a little confused, is there an equation I can follow?
 
What equation can I start from to figure out this problem?
 

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