Simultaneous Aerial Operations TRIZ Cases

Capacitive coupling merges two antenna elements during disconnection, achieving three resonance frequencies while maintaining compact device size.

Curved conformal geometry eliminates zenith nulls and reduces dielectric losses for horizon-to-horizon satellite coverage.

A folded monopole antenna integrates a specific stub structure to manage electrical length and establish dual resonant frequencies.

Positioning antennas between opaque window plate regions and metal housing maintains signal integrity while hiding components from view.

A folded antenna assembly wraps conductive stripes around a polyhedron support to reduce device thickness.

Radial spacing of patch elements across layers reduces parasitic fields, improving isolation and bandwidth.

A tubular antenna merges asymmetrical and biconical dipoles to form a monopole for ultra-wideband RF coverage.

A phase adjustment area connects radiation sections to steer electromagnetic fields, resolving size and cost constraints of traditional phased arrays.

Electromagnetically coupling parasitic L-shape wires to monopole elements provides wideband performance across FM, DAB, and TV frequencies.

Nested dipole modules on one reflector achieve multi-band functionality while reducing structural complexity and size.

Integrating the antenna with LED lighting reduces component count while resolving interference between radio frequency signals and illumination elements.

A film antenna-circuit connection structure uses dummy barriers between connection wirings to shield electromagnetic noise.

A curved metal wire radiating unit couples with a ground plane slot to adjust resonant frequency and increase working bandwidth.

Cylindrical array antenna steers beams via phase control units, resolving terahertz shadowing from narrow beamwidth.

A wideband antenna uses a meander-shaped radiating unit coupled to a grounding element.

Control circuitry switches antenna configurations between flipped and unflipped states to mitigate performance degradation from conductive housing structures.

Segmenting the bandwidth across dipole and Vivaldi radiators resolves the contradiction between broad signal coverage and reduced profile height.

A metal housing antenna design uses integrated feeding points to enable wireless communication.

Stacked metal shielding boxes isolate interference signals between three antennas, ensuring reliable multi-band wireless performance.

On-chip antenna structures transmit signals at 55 to 64 GHz, eliminating bulky external traces.

Segmenting the base plate isolates RF shielding from thermal pathways, allowing heat dissipation without compromising weather protection for the antenna module.

Segmented radiation elements fine-tune impedance matching to resolve the trade-off between compact antenna size and insufficient bandwidth coverage.

A slot antenna design enables placement insensitive operation for RFID tags.

Diagonally coupled rectangular base conductors and spaced L-shaped arms create a compact antenna assembly.

A single feed antenna uses switchable capacitive patches to resonate across multiple cellular bands.

A radiating element couples with a feeding element through electromagnetic fields to transfer energy without physical contact.

A patch antenna generates a circularly polarized radiation beam in a higher order mode to tilt the signal away from the perpendicular axis.

Dual impedance matching circuits adjust dynamically via closed-loop control to resolve restricted radiation environments.

A high-frequency transmission line uses nickel-palladium electroless plating to reduce AC resistance.

Variable inductive reactance from multiple loops resolves standardized capacitance limits, enabling precise resonance control and improved broadband efficiency.

A reconfigurable antenna element alters its resonant path through voltage-controlled circuit branches to support multiple frequency bands.

A switching element connects a radiating unit to selected ground points to adjust resonance frequency across multiple bands.

A switchable parasitic antenna module alters current paths to support multiple frequency bands within compact mobile device dimensions.

Diagonal conductive patterns in the integrated vehicle antenna module reduce electromagnetic mutual coupling while fitting multiple communication bands.

A broadband antenna synchronizes current directions in connecting conductors to achieve additive radiation patterns.

Segmented distributed antennas provide omnidirectional millimeter wave coverage while mitigating signal attenuation in compact electronic devices.

An electromagnetic shield isolates the antenna from nearby components, eliminating re-tuning needs across different devices.

Segmented laser panels deliver continuous connectivity and overcome line-of-sight limitations.

A compact multiband helical antenna system uses nested elements and coaxial conductors to feed sub-systems across wide frequency ranges.

Interleaving microstrip patch units with electrically small antennas enables aperture sharing across frequency bands while maintaining radiation efficiency.

Segmenting the metal frame with insulating gaps isolates radiating portions, enabling 5G sub-6 GHz integration without degrading existing antenna performance.

A vehicle antenna device uses a capacitance loading element with non-resonant length to suppress interference between patch antennas.

A multi-band antenna assembly uses flexible printed circuit board radiating elements that shift from a flat state to a three-dimensional shape.

Circular chokes in the axial waveguide suppress sidelobes and maintain high gain within a compact volume.

A radar antenna transmits beams at two resonant frequencies to compare reflected signals, resolving detection ambiguities in off-centre fields of view.

Integrated resin holder with locking pawls supports parasitic element positioning on antenna circuit board.

Couplers enable indirect electromagnetic coupling between antennas within a shared device volume.