Comprehensive simulation suite for engineered electromagnetic metamaterials with negative refractive index, cloaking applications, superlensing, and terahertz/optical frequency wave manipulation.
8 specialized tools for metamaterial design, simulation, and optimization
Design SRR, wire, and hybrid unit cells with parametric geometry optimization
Analyze ε(ω), μ(ω), n(ω) with Drude-Lorentz effective medium models
Transformation optics cloak design with field visualization
Sub-diffraction imaging with negative-index flat lenses
Design broadband and narrowband metamaterial absorbers
Holographic and phase-gradient metasurface antenna design
Extract ε, μ, n, Z from S-parameters using NRW method
Time-domain electromagnetic field simulation with PML boundaries
Comprehensive guides covering metamaterial physics, design methodologies, and implementation
When both permittivity (ε) and permeability (μ) are negative simultaneously, the refractive index becomes negative, causing backward wave propagation.
Coordinate transformations map to anisotropic material parameters, enabling arbitrary light bending for cloaking applications.
Effective medium models describe metamaterial electromagnetic response through plasma and resonance frequencies with damping.
Compact antennas, absorbers, filters for telecommunications
Sub-diffraction imaging beyond Abbe limit
Electromagnetic invisibility and stealth applications
Perfect absorbers for solar and thermal energy