Field of the parallel plate capacitor

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SUMMARY

The discussion focuses on calculating the electric field around a vacuum parallel plate capacitor using SciLab. The user seeks to implement a numerical solution to Laplace's equation, specifically for a two-dimensional model where the plates have a thickness of h, width L, and a distance D apart. A suggested method involves averaging the electric field values from four nearby points to approximate the solution, although this method may not converge quickly.

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  • Understanding of Laplace's equation in electrostatics
  • Familiarity with numerical methods for solving partial differential equations
  • Basic knowledge of electric fields and capacitors
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adashiu
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Homework Statement


A vacuum parallel plate capacitor is given. Its plates are of
thickness h, width L (in the plane of the figure) and their distance is
D. The plates of the capacitor are
perpendicular to the plane of the figure, which is at the same time the
symmetry plane of the capacitor (our problem is two-dimensional).
The electrical field around the plates should be computed (especially
outside of the capacitor).


I need to implement this in SciLab. The thing I know is that i should make a matrix of all points and for each point calculate electrial field using Laplace Transform.

I am totally green with physics in general. Any suggestion will be appreciated.
 
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I think you mean Laplace's equation, not the Laplace transform.

Try looking into numerical solutions of Laplace's equation. If I recall correctly, there's a pretty simple method involving averaging four nearby points, though it probably doesn't converge very quickly.
 

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