QuickWave 3D

Complete 3D full-wave electromagnetic simulation with conformal FDTD.
Accurate. Versatile. Production-ready.

Why QuickWave 3D

  • Conformal FDTD with advanced models for curved boundaries and media interfaces
  • Precise extraction: S-parameters (full Smn), eigenmodes, Q-factors, de-embedding, power balance
  • Wide scope: circuits, antennas, scattering/RCS, TDR, periodic structures, microwave heating
  • Trusted in industry and research for microwave & mm-wave applications
QuickWave 3D workspace

Key Capabilities

S-Parameters & Circuits

Full Smn, de-embedding, frequency-dependent reference impedance, group delay, SWR, power balance; below-cutoff handling; Touchstone export.

Radiation & Scattering

Near-to-Far (2D/3D), fixed-angle time-domain NTF, Near-to-Near; plane-wave and Gaussian-beam excitation.

TDR & Frequency Monitors

Time-domain reflectometry with measurement-like signals; frequency-domain probes from impulse runs (FD-Monitors).

Resonators / High-Q

Eigenfrequencies, Q-factors, clean modal fields for closely-spaced modes; accelerated analysis via QProny (GPOF).

Periodic & Photonic

PBC in 1–3 axes for FSS, metamaterials, and photonic crystals; band diagrams and modal studies.

Post-Processing

Field maps, integral contours (V, I), lumped element impedance via FD-Probing, parameter sweeps and optimization.

Applications

RF & Microwave Components

Filters (waveguide/planar/combline), couplers, power dividers, multiplexers.

  • S-parameters incl. full Smn, group delay, power balance
  • Insertion/return loss, isolation, cross-coupling
  • Automated sweeps & OptimiserPlus goals

High-Q Resonators

Dielectric/cavity/SIW; close-spaced modal analysis.

  • Eigenfrequencies & Q-factors (QL, Q0)
  • Field maps & loss attribution (dielectric/metal)
  • Acceleration with QProny (GPOF)

Antennas & Arrays

Patch, horn, Vivaldi, rod, lens, phased arrays.

  • NTF 2D/3D radiation patterns, gain, efficiency
  • Impedance/return loss, matching networks
  • Platform effects & radome loading

Planar Circuits & Interconnects

Microstrip/CPW/stripline; PCB and packages.

  • Dispersion, multimode & evanescent effects
  • De-embedding, reference-Z(f), Touchstone export
  • TDR for discontinuities & via transitions

Waveguides & Cavities

Rectangular/circular, transitions, corrugations.

  • Below-cutoff behavior and leakage
  • Mode control, mode conversion, VSWR
  • Thermal hotspots with BHM coupling

Periodic & Photonic Structures

FSS/metasurfaces, photonic crystals, metamaterials.

  • PBC in 1–3 axes, Floquet excitation
  • Band diagrams & modal fields
  • Angular response & polarization control

Scattering & RCS

Targets, coatings, absorber verification.

  • Plane-wave & Gaussian beam excitation
  • Near-to-Far & Near-to-Near transforms
  • Bistatic/monostatic pattern extraction

Microwave Heating & Processing

Industrial ovens, applicators, material processing.

  • BHM: temperature-dependent media & motion
  • Power deposition, coupling efficiency
  • Frequency tuning & source switching

Mobile & SAR Studies

Handset antennas, body-proximate devices.

  • Input impedance & radiation performance
  • SAR in tissue-equivalent media
  • Coupling mitigation & tuning

Material Characterization (EM)

Dielectrics, ferrites, conductors, composites.

  • Extract Dk/Df, μ(f), σ via FD-Probing/ports
  • Model libraries for dispersive media
  • Validation vs. measurement datasets

EMC/Shielding & Enclosures

Chassis, vents, gaskets, absorber lining.

  • Leakage paths & shielding effectiveness
  • Seam/slot and aperture optimization
  • Material trade-offs (weight vs loss)

Custom Multiphysics Workflows

Coupled EM–thermal & optimization pipelines.

  • OptimiserPlus multi-objective targets
  • Scripting & batch runs for DOE
  • GPU/multicore acceleration at scale

Modules & Ecosystem

  • Basic Heating Module (QW-BHM) — temperature-dependent media, moving/rotating loads, source frequency tuning, source switching, heat conduction.
  • QW-OptimiserPlus — multi-objective optimization, sweeps, batch mode, goals from Smn/NTF/FD-Probing.
  • QW-Modeller — free CAD based on FreeCAD/OpenCascade, tailored for QuickWave workflows.
Module integration
Microwave domestic oven with heating processing and two loads rotation in QW-Modeller.
QW-Modeller view
Temperature pattern across the load in consecutive 12 BHM steps.

Computation Acceleration

  • QW-MultiSim (CPU): multicore OpenMP for FDTD and post-processing; MTGOMP for smooth live field display.
  • QW-GPUSim: GPU acceleration (OpenCL) with typical 3D speed-ups vs. CPU; V2D mode with further gains.
  • QW-MultiGPUSim: spatial domain decomposition across multiple GPUs — larger models and additional speed-up.
GPU & multicore acceleration
SpeedUp of the GPU computation of a beefburger placed in a cavity oven (3D example) compared to QW-OMP version on Xeon 4116.

CAD & Geometry Import

  • QW-Modeller — parametric modeling, ribbons for QW workflows, 3D/3DP/V2D projects.
  • DXF/SAT Import — QW-SAT Filter, DXF2UDO; snapping planes to avoid micro-gaps.
  • Autodesk Inventor Add-In — direct project preparation inside Inventor.
Modeling with QW-Modeller
CAD & Geometry: Microstrip filter.

Optimization & Parametric Studies

QW-OptimiserPlus

Multi-objective targets (e.g., passband ripple, stopband attenuation, return loss), caching, batch sweeps, scripted runs.

Design Space Exploration

Dimensions, material parameters, source settings; automate with templates and variables.

External Tooling

Interoperate with external optimizers or MATLAB via files and scripts.

Microwave Heating (QW-BHM)

  • Time-varying material properties (ε, σ, etc.) as functions of temperature/energy/enthalpy
  • Moving/rotating loads on user-defined paths
  • Source frequency tuning for best coupling (e.g., solid-state generators)
  • Source parameter switching and coupled heat conduction analysis
Microwave heating simulation
Microwave Heating: Microwave applicator moving above bituminous pavement.

High-Q Structures (QProny)

QProny accelerates narrowband and high-Q analyses (filters, resonators) using a GPOF-based approach, reducing simulation length while preserving accuracy of QL and responses.

High-Q filter analysis
HighQ: comb-line filter consisting of two cavity resonators coupled via a rectangular aperture.

Post-Processing Highlights

Full S-Parameter Toolkit

Sk1/Smn/Γk modes, de-embedding, plane shift, group delay, SWR, power budget, below-cutoff, Touchstone export.

Radiation & RCS

3D patterns, gain, efficiency; Huygens surfaces; NTF (TD/FD) and NTN transforms.

FD-Probing & Contours

Integral contours for V/I, resultant impedance of lumped parts via FFT of port U/I.

Material Models

  • Dispersive dielectrics: Debye, Drude, Lorentz (up to 3 poles)
  • Metamaterials: independent ε(ω) and μ(ω) with mixed Debye/Drude/Lorentz
  • Ferrites (gyrotropic): with damping, magnetization, static bias fields
Material dispersion models
Material Models: Reflection and transmission characteristics of the parallel plate with dispersive cylinder.

Ports, Excitations & Boundaries

  • Modal ports with impedance correction; multi-port Smn, lumped ports and loads
  • Plane wave / Gaussian beam excitations (3D/2D), also with PBC for periodic studies
  • Boundaries: PML (parabolic/exponential), Mur w/ super-absorption, PBC (1–3 axes)
  • Meshing: auto/manual refinement, limited mesh regions, snapping planes (E/M/neutral/suspended)
  • Singularity models: thin wires, edges/corners — correct field asymptotics without over-refinement
Ports & boundaries
Ports, Excitation & Boundaries: In the consecutive heating steps, Basic Heating Module performs automatic modification of source parameters, according to user specification, made for each source separately.

FAQ

What solver does QW-3D use?

Conformal FDTD with proprietary boundary/interface models for high geometric fidelity.

Does it support heating and motion?

Yes — with the Basic Heating Module: temperature-dependent media, moving/rotating objects, and heat transfer.

Can I analyze resonators and high-Q filters?

Yes — eigenfrequencies, Q-factors, modal fields, plus the QProny engine for accelerated narrowband analysis.

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