Module #1 Introduction to Electromagnetics Overview of electromagnetic theory, Maxwells equations, and importance of numerical methods
Module #2 Numerical Methods Overview Introduction to numerical methods, advantages, and limitations
Module #3 Finite Difference Method Basic concepts, discretization, and implementation of finite difference method
Module #4 Finite Difference Method:1D Electrostatic Problems Applications of finite difference method to 1D electrostatic problems
Module #5 Finite Difference Method:2D Electrostatic Problems Applications of finite difference method to 2D electrostatic problems
Module #6 Finite Element Method Basic concepts, discretization, and implementation of finite element method
Module #7 Finite Element Method:1D Electrostatic Problems Applications of finite element method to 1D electrostatic problems
Module #8 Finite Element Method:2D Electrostatic Problems Applications of finite element method to 2D electrostatic problems
Module #9 Method of Moments Basic concepts, discretization, and implementation of method of moments
Module #10 Method of Moments:Electrostatic Problems Applications of method of moments to electrostatic problems
Module #11 Numerical Solution of Maxwells Equations Discretization and solution of Maxwells equations using numerical methods
Module #12 Time-Domain Numerical Methods Introduction to time-domain numerical methods, including FDTD and TLM
Module #13 Frequency-Domain Numerical Methods Introduction to frequency-domain numerical methods, including FEM and MoM
Module #14 Scattering and Radiation Problems Numerical solution of scattering and radiation problems using various methods
Module #15 Computational Electromagnetics in MATLAB Implementation of numerical methods in MATLAB, including scripting and visualization
Module #16 Computational Electromagnetics in COMSOL Implementation of numerical methods in COMSOL, including modeling and simulation
Module #17 Validation and Verification Importance and techniques for validation and verification of numerical results
Module #18 Numerical Methods in Electromagnetic Compatibility Applications of numerical methods in electromagnetic compatibility and interference
Module #19 Numerical Methods in Antenna Design Applications of numerical methods in antenna design and optimization
Module #20 Numerical Methods in Microwave Engineering Applications of numerical methods in microwave engineering and device design
Module #21 Advanced Topics in Numerical Electromagnetics Discussion of advanced topics, including parallel computing and GPU acceleration
Module #22 Case Studies in Numerical Electromagnetics Real-world case studies and applications of numerical methods in electromagnetics
Module #23 Numerical Methods in Electromagnetic Imaging Applications of numerical methods in electromagnetic imaging and non-destructive testing
Module #24 Numerical Methods in Biomedical Electromagnetics Applications of numerical methods in biomedical electromagnetics and medical imaging
Module #25 Numerical Methods in Electromagnetic Modeling of Materials Applications of numerical methods in electromagnetic modeling of materials and metamaterials
Module #26 Numerical Methods in Electromagnetic Optimization Applications of numerical methods in electromagnetic optimization and inverse problems
Module #27 Numerical Methods in Electromagnetic Uncertainty Quantification Applications of numerical methods in electromagnetic uncertainty quantification and sensitivity analysis
Module #28 Numerical Methods in Electromagnetic Simulation of Complex Systems Applications of numerical methods in electromagnetic simulation of complex systems and platforms
Module #29 Numerical Methods in Electromagnetic Design and Optimization Applications of numerical methods in electromagnetic design and optimization of devices and systems
Module #30 Course Wrap-Up & Conclusion Planning next steps in Numerical Methods in Electromagnetics career
