two large, parallel, conducting plates are 50.000 cm apart and have charges of equal magnitude and opposite…

two large, parallel, conducting plates are 50.000 cm apart and have charges of equal magnitude and opposite sign on their facing surfaces. an electrostatic force of 5.6059 × 10^(-15) n acts on an electron placed anywhere between the two plates. find the magnitude of the potential difference between the plates (neglect fringing).
Answer
Explanation:
Step1: Recall the formula for electric - field force
The force on a charged particle in an electric field is given by $F = qE$, where $F$ is the force, $q$ is the charge of the particle, and $E$ is the electric field. The charge of an electron is $q=- 1.6\times10^{-19}\ C$. $E=\frac{F}{q}$
Step2: Calculate the electric field
We know that $F = 5.6059\times10^{-15}\ N$ and $q = 1.6\times10^{-19}\ C$. $E=\frac{5.6059\times10^{-15}}{1.6\times10^{-19}}=\frac{5.6059}{1.6}\times10^{4}\ V/m=3.5037\times10^{4}\ V/m$
Step3: Recall the formula for potential - difference
The potential - difference $V$ between two parallel plates separated by a distance $d$ in a uniform electric field $E$ is given by $V = Ed$. The distance between the plates $d = 50.00\ cm=0.5000\ m$. $V=E\times d$
Step4: Calculate the potential - difference
Substitute $E = 3.5037\times10^{4}\ V/m$ and $d = 0.5000\ m$ into the formula. $V=(3.5037\times10^{4})\times0.5000 = 1.75185\times10^{4}\ V$
Answer:
$1.75185\times10^{4}\ V$