Dielectric lids isolate antennas from ground planes, preserving radiation efficiency in compact devices.
Integrating antenna, touch sensing, and ESD protection into one metal element reduces form factor and cost while maintaining wireless performance.
Nested patch segments adjust height dynamically to resolve tolerance variations, preventing unwanted hood enlargement.
Dielectric block configuration reduces reflection loss while maintaining performance in portable devices.
A tunable antenna adjusts its resonant path length via a connection circuit to support multiple frequency bands.
Metal partition plane separates antenna groups, resolving the contradiction between omnidirectional coverage area and signal isolation.
Segmented metal sheet units coupled to a grounded plate excite TM10 and TM20 modes, achieving high gain in low-profile millimeter-wave packaging.
Segmenting radiation electrodes into direct and capacitive types reduces mutual interference while maintaining multi-band operation in compact wireless devices.
Stacked patch antennas use coupling patterns to boost gain and bandwidth while reducing signal absorption in high-frequency communications.
This multi-substrate antenna structure eliminates the need for a Balun component by integrating balanced feeding techniques directly into the radiating elements.
Multi-port co-design enables dynamic pattern reconfiguration to suppress grating lobes and spatial interference in wideband mm-Wave transceivers.
A frequency switching circuit uses a linear variable capacitor to tune antenna grounding paths via voltage control signals.
Integrating a solar cell with a ground plane eliminates separate antenna components, reducing satellite launch weight while maintaining electrical conductance.
Segmented metal frame antennas increase transmission bandwidth by supporting multiple frequency bands while maintaining existing antenna performance.
Mixing microstrip and stripline support PCBs reduces cross polarization and keeps beam squint below 15 degrees at high downtilt angles.
Segmented antenna elements arranged in three dimensions achieve high isolation and wideband coverage for LTE and 5G devices.
A branched conductive pathway with multiple arms enables a single antenna module to resonate at different frequencies via terminal selection.
A shorted monopole antenna uses a closed loop radiating structure to generate two wide operating bands for mobile communication devices.
Embedded conductive wires form a coupled transmission line power divider within vehicle glazing to support wideband and multiband applications.
Resonant dipole elements with controlled capacitive coupling achieve wideband operation beyond 20 GHz, suppressing grating lobes during wide-angle scanning.
A printed monopole antenna plate integrates ultra-wideband and Bluetooth elements on a shared ground plane.
Integrating a transparent conductive pattern into the display panel resolves space conflicts between large screens and antenna placement.
An antenna module couples a metal plate to a ground plate via connection members to generate multi-band resonance without requiring slots on the device cover.
Antenna structure employs impedance matching circuits and filters to maintain reliable signal transmission across multiple frequency bands.
A segmented metal antenna structure uses capacitive feeding elements to support multiple wireless communication protocols.
A parabolic antenna source uses distinct sigma and delta radiating assemblies to generate independent channel radiation for multi-band operation.
A multi-layer 3D antenna carrier arrangement routes radiators across coupled blocks to expand surface area within compact volumes.
Mounting carriage suspends dielectric antennas beyond pole cross members, guiding electromagnetic waves to reduce interference and propagation loss.
Capacitive feed configuration minimizes ground plane intrusions and substrate area usage while maintaining well-defined electrical properties.
A conductive frame with a slit and signal generation circuit produces L5 band signals via a feed point.
A multiband antenna uses a coupling capacitor between radiating and conducting elements to enable multiple frequency operation.
Strategic grounding and feeding points enable multi-band resonance, maintaining high radiation efficiency despite the presence of a metal frame.
A satellite antenna design featuring a movable reflector that aligns its focal point with independent radiofrequency sources to enable flexible pointing and polarization.
Integrating a three-electrode high-frequency amplifying device into a resonant cavity eliminates transmission lines, reducing complexity and power consumption.
An antenna structure uses an adjustable inductor to tune resonant frequency across dual bands.
Segmented ground planes isolate four monopole antennas on a compact substrate, reducing self-interference for faster data transfer.
An inverted F metal plate and dual radiation bodies generate wireless signals across multiple frequencies.
Segmenting the antenna into sections with different widths transforms impedance locally, resolving the trade-off between miniaturization and signal reliability.
A metamaterial slab integrated on a single-turn loop antenna focuses electromagnetic waves to boost power transfer efficiency and signal gain.
A backscatter RFID antenna uses a yoke-shaped trace segment to connect branches and match capacitive impedance.
A segmented metal housing antenna structure uses insulating gaps to optimize signal radiation efficiency across multiple frequency bands.
Nested coaxial feed lines decouple radiating elements, reducing mechanical complexity while maintaining stability under water pressure.
A double PCB antenna structure uses capacitive coupling between conductive pads to suppress unwanted resonances and passive intermodulation effects.
A support plane slot with an electrical component tunes current balance between dual shared isolated antennas, resolving isolation volume trade-offs.
Offsetting the RF feed horn from the optical axis prevents signal blockage, enabling continuous LEO-to-ground connectivity through cloud cover.
Switched impedance networks shift operating bandwidths across noncontiguous frequency bands, maintaining radiation efficiency while reducing SAR exposure.
A laminated component carrier embeds impedance matching circuitry vertically between a front-end chip and an antenna interface.
A circuit board antenna uses a closed rectangular conductive jacket to distribute current and minimize ohmic losses.
A single antenna system integrates a decoupling circuit within its metal structure to achieve high isolation.