Resonators TRIZ Cases

Drilling tuning holes on outer faces adjusts resonant frequencies in bonded dielectric filters.

Asymmetric coupling grooves enable independent positive and negative coupling control, resolving design complexity in dual-mode resonators.

Low loss machined dielectric resonators resolve the contradiction between high quality factor and fast electrical tuning speed.

A multimode radio frequency resonator uses a split chamfer to perturb magnetic fields for independent mode tuning.

Varactor diodes replace mechanical tuning elements in high-order balanced bandpass filters, achieving wideband common-mode suppression and low insertion loss.

Movable dielectric resonators adjust the opposing interval to vary the center frequency while maintaining a high Q factor.

A resonant unit integrates an embedded interdigital structure within a defected ground plane to generate multiple resonant frequencies.

Resonance holes and a pattern layer improve frequency response while mitigating spurious responses in communication systems.

Threadless tuning elements in coaxial resonator bores eliminate metallic abrasion and passive intermodulation from threaded connections.

Capacitor elements create a capacitance gap to shorten the resonator element below quarter-wavelength physical length while maintaining electrical stability.

Complementary split ring resonators form leaky cavities that improve frequency selectivity without increasing waveguide height or weight.

Strategic conductor placement reduces external Q, increasing fractional bandwidth for 5G systems.

A dielectric tuning element increases capacitance between a hollow rod and resonator inner wall to enable compact cavity designs.

Coupling windows balance magnetic and electric coupling to block second harmonic propagation while maintaining fundamental resonance.

Deforming a plastic metal resonant column adjusts distributed capacitance and inductance to tune the cavity resonator frequency.

Nested cross-shaped conductors resolve size and insulation trade-offs, ensuring modal purity without external compensation circuits.

Rotating elliptical dielectric resonators adjusts coupling spacing to tune bandwidth, eliminating insertion loss from conductive tuning screws.

A transverse magnetic mode dielectric resonator uses elastic cover and baseplate materials to absorb thermodynamic deformation.

A multiband filter uses ceramic resonant structures to achieve compact filtering across higher UHF bands.

Voltage-controlled varactors modulate phase velocities in a dual-mode ring resonator to switch frequency responses, reducing circuit complexity.

Multi-layer dielectric structures with an adjustable metal patch tune resonance frequencies while maintaining compact footprint area.

Room temperature semiconductor resonant circuits replace cryogenic superconductors to enable high-speed infrared detection without low temperature operation.

Non-mirror symmetric holes in the dielectric resonator body enable frequency and bandwidth adjustment via cover screws, simplifying assembly.

Tapered cross-sections increase capacitance to shrink cavity size while maintaining high quality factor.

A millimeter waveband filter uses planar half mirrors to tune resonant frequency via spacing adjustments.

Two resonator posts with a tuning screw in the gap increase frequency tunability without reducing power handling.

Nested pipes fold the coaxial structure, reducing length and increasing ruggedness for field radar deployment.

A wave coupler chamber with dielectric material transmits signals between isolated and exposed components.

A tunable microwave arrangement uses varactors integrated into waveguide walls to control surface currents and load the structure with adjustable impedance.

Actuators tune resonator volume to compensate for thermal expansion, stabilizing phase relations across high-frequency channels.

Segmented resonant lines with varied electrode widths enable strong capacitive coupling in microstripline filters.

A dielectric waveguide filter uses RF signal transmission bridges and windows to define direct and cross-coupled resonator paths.

Internal windows and conductive pads enable cross-coupling in a dielectric waveguide filter, increasing attenuation without extending the device length.

Anisotropic cavity resonator materials stabilize resonance frequency through directional thermal expansion control.

Capacitive elements modify resonant frequency in a spurline filter, reducing layout area by half without compromising band rejection filtering.

Segmented conductor geometry minimizes magnetic coupling to shrink filter volume while maintaining bandpass performance.

Metallic washers with protrusions secure dielectric resonators in RF filter cavities.

Symmetrical dumbbell-shaped defects on upper and lower ground planes confine current flow to minimize radiation loss and enhance capacitance.

A blocking filter arrangement uses resonator cavities and tuning elements to shape frequency response.

A clover-shaped resonating cavity with dielectric material shifts low Q mode frequencies to separate modes.

Dielectric elements with lower thermal expansion coefficients stabilize resonant frequency in satellite communication systems.

A resonant cavity filter tuning element uses a smooth pin member secured by a turret to adjust frequency response without threading.

Orthogonal field polarizations in cylindrical cavities enable complex filter functions and transmission zeros without bulky resonator structures.

Lateral mounting of coupling means on resonator rods eliminates mechanical instability from connector forces while maintaining effective RF signal transfer.

A multi-mode cavity filter uses surface conductive patterns to couple degenerate electromagnetic modes within a single dielectric body.

Opposite sign temperature coefficients in the body and peripheral portions cancel thermal drift, reducing the absolute coefficient of resonant frequency.

Suspended metallic blocks eliminate spurious resonances and lower costs compared to dielectric cubes, improving signal strength.

Moving weld seams to interior volumes reduces magnetic field concentration at the equator, preventing premature quenching and enhancing acceleration gradients.