A frequency-selective patch pattern lets higher-band beams pass through a lower-band panel, reducing interference, size growth, and signal distortion.
A conductive split housing with an internal PCB cuts waveguide antenna alignment time while improving heat dissipation and EMI shielding.
Selective switching across optical antenna arrays replaces mechanical beam steering in coherent LIDAR, improving reliability and scan resolution.
Isolation areas placed between closely spaced patch antennas reduce wireless signal interference and improve antenna isolation.
A segmented beamforming network places intermediate amplification between on-chip and off-chip stages to cut RFIC count, cost, and layout complexity.
A widened-end waveguide cuts electric field leakage and transmission loss while keeping double-sided board routing compact.
Mesh conductive layers and beamforming circuits preserve transparency while boosting antenna gain, directivity, and movement tracking.
A rotatable antenna mount reorients 5G and Wi-Fi antennas to limit metal chassis interference across laptop, closed-lid, and tablet modes.
Two superimposed waveguides spread laser power evenly across the phase-change material, enabling complete switching and preventing leakage currents.
An interposing board shortens vertical RF paths between antenna elements and RFICs to cut transmission loss and ease RU board complexity.
Press-in pins and PCB sleeves replace solder or screws to secure a waveguide antenna with tighter alignment, less space, and lower cost.
Separating the RF transceiver from the LED light engine improves cooling, airflow, maintenance access, and 360-degree wireless coverage.
A thin vehicle glass antenna uses integrated heating and a coupled metallic element to maintain GNSS gain and clear snow or ice.
A shared azimuth sensor and relative angle detection let two base station antennas fit tighter spaces while keeping precise directional alignment.
Separating the logic die from an RFFE die placed closer to the antenna patch cuts RF loss and supports compliant millimeter-wave modules.
Sub-array spacing and time-division multiplexing expand virtual radar aperture while suppressing grating lobes and improving angular detection.
Radar reflections and AI identify falls and daily activities indoors without cameras or wearables, improving privacy and user compliance.