Computational electromagnetics: Difference between revisions
From Medusa: Coordinate Free Meshless Method implementation
More actions
Created page with " == Case studies == The following pages describe the basics of computational electromagnetics, starting with relevant derivations and the basics of classical electromagnetism...." |
No edit summary |
||
| Line 8: | Line 8: | ||
== Classical electromagnetism == | == Classical electromagnetism == | ||
Classical electrodynamics is historically one of the most eminent fields of physics, as an extension of classical mechanics, it is very successful in explaining a plethora of phenomena. The dynamics of electric and magnetic fields are described with Maxwell's equations | |||
Revision as of 23:12, 9 August 2020
Case studies
The following pages describe the basics of computational electromagnetics, starting with relevant derivations and the basics of classical electromagnetism. The subpages include case studies with analytical solutions if they exist and numerical solutions.
Classical electromagnetism
Classical electrodynamics is historically one of the most eminent fields of physics, as an extension of classical mechanics, it is very successful in explaining a plethora of phenomena. The dynamics of electric and magnetic fields are described with Maxwell's equations