A waveguide transition arrangement uses a resonator part to couple feed probe signals to the waveguide section via electromagnetic apertures.
A ridge gap waveguide crossover structure uses metal pins and air gaps to guide electromagnetic waves between intersecting transmission lines.
Folded corrugated substrate integrated waveguide replaces conductive vias with vertical open stubs to enable DC biasing while minimizing leakage radiation.
A three-dimensional dielectric metamaterial guides electromagnetic waves through a spatially varying substrate structure.
A coaxial slot filter uses an epoxy matrix with ferromagnetic particles to absorb high-frequency signals while maintaining constant impedance.
Void spaces in the dielectric core reduce signal loss while structural support prevents buckling, enabling high-bandwidth transmission up to 300 GHz.
Segmented ridge gap waveguides using textured parallel plates confine fields to minimize ohmic losses at frequencies above 30 GHz.
A plastic waveguide assembly uses a protective foam envelope to contain external waves and shield the core from physical contact.