Frequency-dependent amplitude and phase control keeps multibeam antenna patterns stable across a wide band while avoiding larger arrays.
Phase feedback in the folded state adjusts antenna tuner timing and power backoff to maintain balanced radiation performance.
Multiple antenna sets on the touch area switch by input location to limit touch interference and preserve wireless signal quality.
Digital frequency translation shifts AESA beamforming away from analog circuitry, enabling more antennas, wider bandwidth, and better jamming suppression.
Spatial multiplexing steers a power beam to the receiver while placing a null on the data antenna, enabling simultaneous wireless power and communication.
ML compares real-time and predicted antenna connectivity to detect degradation early and switch autonomous vehicles to healthier links.
Pretrained beam mapping and signal-quality-based antenna switching sustain 5G FR2 links during high-speed movement.
Dedicated RIS-RNTI signaling lets base stations identify and regulate RIS phase states with lower overhead, improving mmWave coverage and capacity.
Predefined beam books let a foldable 5G device switch antenna patterns with shape changes, cutting beam search time and preserving mmWave coverage.
Virtual beam sweeping inserts intermediate uplink beams to smooth PRACH power variation and reduce missed detection in LTE and NR active antennas.
Decoupled RF transmit and receive sensing improves detection of temperature, composition, and mixing changes in monitored media.
Grouped transmit and receive antennas cut rail vehicle roof space while maintaining separation needed to reduce interference and signal loss.
An integrated amplifier and reconfigurable reflector offsets high-frequency beam loss, uses the full reflector area, and avoids beam detection algorithms.
Shared transmit branches with phase shifters and parallel receive chains shorten SRS-based channel estimation while controlling base station cost.
Two switches and dual electrical paths let multiple antennas be reconfigured for better communication quality with lower signal loss and circuit complexity.
Transmission-matrix calculation links slot-unit layouts and on/off codes to beam deflection, reducing simulation dependence and optimization time.
Tracks antenna panel switching in a moving window so the network can adjust beam settings and maintain stable radio connectivity.