Radiating Elements Structural Forms TRIZ Cases

Stacked thin liquid crystal sublayers improve molecule alignment, cut response time, and lower insertion loss for faster RF beam steering.

A balun-coupled spoof surface plasmon line carries odd and even modes together while improving field confinement, impedance conversion, and loss control.

Annular openings and substrate voids tune dielectric permittivity, giving microstrip antennas more flexible frequency design with thinner, bendable structures.

Concave shielding and dielectric layers create discontinuous impedance between adjacent antennas to improve isolation, gain, and signal quality.

A nested ring antenna layout enables vertical and horizontal polarization in low height while preserving isolation and omnidirectional radiation.

By combining magnetostrictive and piezoelectric layers, this antenna processes signals directly to cut noise, delay, and extra modules.

Segmented tapered RF projections with chip baluns enable compact, lightweight broadband capture while reducing reflections on the aperture.

An isolation plate splits the reflector into transmit and receive zones, cutting loopback noise while preserving precise full-duplex beam transmission.

A cavity-coupled multilayer PCB array suppresses surface waves and leakage, enabling dual polarization and beam scanning up to ±60°.

Bent support portions and hollowed-out regions improve antenna vibrator isolation and cross polarization without adding weighty boundary parts.

Disconnected ground regions in a multilayer filter group cut crosstalk between closely integrated filters in wireless communication modules.

A symmetric radiation layout with a cross-shaped exciter supports multiple frequency bands, cutting antenna redesign effort and manufacturing cost.

Stacked transparent substrates with overlapping radiation layers cut antenna profile while preserving 5G coverage and radiation efficiency.

Flat conductive patches in a dielectric-loaded resonator lower resonance frequency, shrinking millimeter-wave waveguide circuits for tight module spaces.

Variable-width waveguide sections and slotted openings improve impedance matching and bandwidth for compact frequency-steered radar antennas.

A variable-width waveguide with slotted openings and conductive vias improves impedance matching, bandwidth, and frequency beam steering in compact ADAS radar antennas.

Vertical coupling between stacked metal strips shrinks SSPP transmission line width, saving PCB space while preserving signal transmission quality.

A low-melting conductive material reconnects particles and elongated elements during thermoforming to prevent track cracks and preserve conductivity.

Adjustable optical modules and rigid camera supports with integrated antennas maintain eye and camera alignment in head-mounted displays.

Keeping antenna ports at the same local coordinates simplifies beam-forming network layout while reducing coupling and improving polarization purity.

Perpendicular ISRRs use phase interference to tune transmission, reflection, and absorption with a simpler structure and wider terahertz range.

Low-height parasitic metal structures add coupling paths that offset mutual coupling, improving array antenna isolation without added bulk.

A movable and fixed substrate layout shifts dual-polarized feed phases while reducing antenna depth and column interference.

A ground-electrode coupling hole shrinks balun footprint while preserving broadband balanced-unbalanced signal conversion.

ZnO-based layered plasmonic structures enable active visible-light modulation by tuning permittivity and strengthening surface plasmon modes.

A dummy electrode beside the radiation electrode preserves antenna function while reducing visual shadows and reflectivity differences on the display.

AMF-controlled connected-state timers keep 5G terminals ready for precise location service without idle-mode DRX delays.