How to Calculate Electric Field and Potential for a Uniformly Charged Sheet?

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Homework Statement



A sheet of uniform charge density σ n dimensions a x a . find the electric field n potential on an axis passing through the midpoint of the sheet and perpendicular to the sheet as a function of distance h from the midpoint

Homework Equations





The Attempt at a Solution

 
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Do you have a specific question or post your attempt at solving so we can see where your problem is?
 
Well I tried finding the potential due to a strip element on the sheet and then integrating it but have a problem with the integration as when i plug in h\rightarrow0 I don't get \sigma/2\epsilon_{o}
 
E is not a constant function of h. Break this down into three piece-wise functions.
E where h > 0, E where h = 0, and E where h < 0.

Use Gauss' Law with a pill box to get E above and E below. For E at h = 0 ask yourself what is the E field at a point charge? Is E continuous?
 
Hi, I had an exam and I completely messed up a problem. Especially one part which was necessary for the rest of the problem. Basically, I have a wormhole metric: $$(ds)^2 = -(dt)^2 + (dr)^2 + (r^2 + b^2)( (d\theta)^2 + sin^2 \theta (d\phi)^2 )$$ Where ##b=1## with an orbit only in the equatorial plane. We also know from the question that the orbit must satisfy this relationship: $$\varepsilon = \frac{1}{2} (\frac{dr}{d\tau})^2 + V_{eff}(r)$$ Ultimately, I was tasked to find the initial...
The value of H equals ## 10^{3}## in natural units, According to : https://en.wikipedia.org/wiki/Natural_units, ## t \sim 10^{-21} sec = 10^{21} Hz ##, and since ## \text{GeV} \sim 10^{24} \text{Hz } ##, ## GeV \sim 10^{24} \times 10^{-21} = 10^3 ## in natural units. So is this conversion correct? Also in the above formula, can I convert H to that natural units , since it’s a constant, while keeping k in Hz ?
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