EE545
Syllabus:
Review
of electromagnetic theory (section 3.4.1 & 3.6.1 of reference 1)
Introduction
to computational electromagnetics (section 1.2 of reference 3)
Method
of Moments:
Integral
formulation of electrostatics, Capacitance problem in unbounded 2D region
(Section 10.3 of reference 3)
Electromagnetic
scattering (Section 11.2.5 of reference 5 and Chapter 2 of reference 7),
Scattering
on thin wires (Section 10.5 of reference 3),
Analysis
of microstrip antennas and circuits, (Appendix A.2 of
reference 4, chapter 7 of reference 2 & reference 11)
EM
absorption in human body (Section 5.7 of reference 8 & reference 10)
Fast multipole method.
Finite
difference methods:
Basic
components of finite difference solvers, Wave equation: 1-D FDTD (Appendix A.1
and A.2 of reference 3)
2-D
FDTD method (Appendix A.3 of reference 3)
3-D
FDTD method (sections 5.2.2, 5.2.5 of reference 9)
Perfectly
matched layer: 2-D Split-field, 3-D Uniaxial, CPML (section
8.5.3 and 9.5.3 of reference 1, reference 12, reference 13)
Finite
element method:
Overview,
Laplace/Poisson equation (2-D FEM) (6.2 and 6.3 of reference 8)
Boundary
condition for FEM, (1.3.3 of reference 8)
Helmholtz
equation (2-D FEM), (6.4 of reference 8)
Time
domain FEM, (6.11 of reference 8)
Finite
element method-boundary element method,
FEM/MOM
hybrid,
References:
Lecture
slides: