Communications in Mathematical Sciences · 2008 · 12 citations · 20 references
Natural SciencesElectrical EngineeringComputational ElectromagneticsComputational PhysicsElectromagneticsGreen's FunctionsIntegral Equation FormulationsMaxwell's EquationsScattering AnalysisScattering ProblemsScattering Theory3D Electromagnetic ModelingElectromagnetic ScatteringFredholm Integral EquationsFredholm TheoryNumerical Green's FunctionsOrder AccuracyPeriodic Green's FunctionsSingular Green's Functions
We develop a method for 3D doubly periodic electromagnetic scattering. We adapt the Mller integral equation formulation of Maxwell's equations to the periodic problem, since it is a Fredholm equation of the second kind. We use Ewald splitting to efficiently calculate the periodic Green's functions. The approach is to regularize the singular Green's functions and to compute integrals with a trapezoidal sum. Through asymptotic analysis near the singular point, we are able to identify the largest part of the smoothing error and to subtract it out. The result is a method that is third order in the grid spacing size. We present results for various scatterers, including a test case for which exact solutions are known. The implemented method does indeed converge with third order accuracy. We present results for which the method successfully resolves Wood's anomaly resonances in transmission.
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