IEEE Transactions on Antennas and Propagation · 2005 · 43 citations · 8 references
ComputingComputational EngineeringElectrical EngineeringAntennasComputational ElectromagneticsMicrowave EngineeringAntenna DesignAntenna SimulationFinite Difference MethodsFinite Difference Time Domain AnalysisGreen's FunctionsMicrowave Device SimulationAbsorbing Boundary ConditionsAntenna AnalysisFinite Difference Time Domain For AntennasFinite Difference Time Domain ModelingImpulse ResponseImpulse Response FunctionYagi-uda AntennasYee Algorithm
A discrete Green's function formulation of the finite-difference time-domain (DGF-FDTD) method based on both discrete system theory and the FDTD method has been developed, which expresses the field response as a convolution of current sources and the impulse response of the FDTD equation system. The DGF-FDTD method presents the FDTD equations in a different perspective from the conventional Yee algorithm. It avoids the computational difficulties such as the need for computation of free-space nodes and absorbing boundary conditions of the classic FDTD method. The ability of the DGF-FDTD method to model on antenna is demonstrated by the modeling of a Yagi-Uda array antenna with considerable saving in memory usage.
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Handbook of Mathematical Functions
Donald A. McQuarrie · American Journal of Physics · 1966 · 40.9K citations
D.J. Southwood · Electronics and Power · 1974 · 625 citations