1 Conformal FDTD engine - General Information
1.1 Fundamentals of the Method of Analysis
1.2 FDTD Method in QuickWave Software
2.7 Dielectric Dispersive Anisotropic
2.8 Dielectric Dispersive Nonlinear
2.12 Temperature dependent materials
2.13.1 Infinitely thin metal layers
3.1 Electric Boundary Conditions
3.2 Magnetic Boundary Conditions
3.3 Absorbing Boundary Conditions
3.3.1 Perfectly Matched Layer (PML)
3.3.2 MUR with superabsorption
3.4 Periodic Boundary Conditions
3.5 Asymptotic Boundary Conditions (wire grids)
4.1 Conformal Approximation for Irregular Geometries
4.5.1 Mesh snapping planes types
5.1.1 Transmission line port excitation
5.1.2.1 Lumped resistive source
5.1.2.2 Ideal voltage and current source
5.1.3 Free space incident wave
5.1.3.2 2D and 3D Gaussian beam excitation
5.2.1 Transmission line port termination
5.2.3 Lumped impedance element
5.4.1 Pre-defined signal library
5.4.2 User defined signal excitation
5.5 Template mode generation procedure
5.5.1.1 Physical parameters of template generation:
5.5.1.2 Fundamentals of template generation in FDTD:
5.5.1.6 Switching from automatic to manual mode generation
5.5.2 Quasi-static (TEM) template
5.6 Generation of circular polarisation
5.7 Determination of input power
6.1.3 Dissipated power and dissipated power density
6.1.5 Temperature and enthalpy density
6.1.6 Effective Media Parameters
6.1.8 Monitoring along specified line and versus time
6.1.9 Attenuation, S11, and SWR
6.1.10 Time-Domain Reflectometry
6.1.11 Power dissipated, energy stored and Q-factors
6.1.11.1 In electric and magnetic field
6.1.11.3 For periodic structures
6.1.12 Time integral of power dissipated
6.2.2 Frequency dependent wave impedance
6.2.3 Frequency dependent propagation constant
6.2.5 Frequency dependent Standing Wave Ratio and Group Delay
6.2.6 Power Available from the source
6.2.7 Energy available from the source
6.2.8 Below cutoff calculations
6.2.9 Radiation and Scattering
6.2.9.3 Radiation pattern at chosen Huygens surface
6.2.9.4 Radiation pattern in an arbitrary isotropic medium
6.2.9.9 Power injected by source
6.2.9.10 Current injected by source
6.2.9.12 Circular Polarisation
6.2.9.14 Far field 3D radiation pattern
6.2.10 Radiation at Fixed Angle versus frequency
6.2.11 Impulse response in the far-field
6.2.13 Time integration of the Poynting vector
6.2.14.1 Analysis of Eigenvalue Problems
6.2.14.2 Field Integration along an arbitrary path
6.2.14.3 Embedding Impedance for Lumped Elements
6.2.14.4 Currents Induced in Wires
7 Advanced Options and Operation Regimes
7.2 Conformal FDTD algorithm parameters
7.4 Energy simulation stop criterion
7.5.4 Parameters Grid - range or specific values
7.5.6 Coupling with external applications
7.6 Suppress calculation options
7.6.1 Suppress singularity corrections
7.6.2 Suppress density and SAR
7.9 Step by step simulation execution
7.12 Running in command line regime
7.13 Gradual excitation turning off
8.2 Time- and frequency-domain results
9.1 Multiprocessor/Multicore Computing
10.1 Rules of thumb and hints for FDTD simulation in QuickWave
10.2 How to assure the proper mesh generation
10.3 Boolean operations on geometry
10.4 Memory requirements for simulation of a project
10.5 Forecasting the computing time
10.6 Simulation results convergence