Part 6 - Computational Electromagnetics
"The most natural thing in the world is for a new science to be made by the confluence of many diverse studies and fields." — James Clerk Maxwell
Part 6 of CPVR delves into the sophisticated realm of computational electromagnetics, showcasing Rust’s role in accurately modeling and analyzing electromagnetic phenomena. It begins with the foundational principles of Electrostatics and Magnetostatics, exploring static electric and magnetic fields and their interactions. The section advances to the Finite-Difference Time-Domain (FDTD) Method, a versatile numerical technique for solving Maxwell's equations and capturing time-varying electromagnetic fields. Computational Electrodynamics follows, focusing on the simulation of complex electromagnetic interactions and fields. The discussion then turns to Wave Propagation and Scattering, addressing how waves travel through and interact with different media, and how these interactions can be computed. The final chapter covers Photonic Crystal Simulations, examining materials with periodic structures that influence light propagation. This part highlights how Rust’s computational efficiency and robustness can drive advancements in understanding and applying electromagnetic theory.
🧠 Chapters
Notes for Students and Lecturers
For Students
Focus on the key principles of electromagnetics as you study this part. Engage with the simulations to understand how Rust's performance enhances the modeling of electromagnetic fields, wave behavior, and interactions in various media.
For Lecturers
When teaching Part 6, emphasize the interplay between electromagnetic theory and computational methods. Encourage students to experiment with the provided examples and simulations to see how Rust facilitates efficient and robust modeling of complex electromagnetic phenomena.