A modal antenna selects optimal radiation patterns to improve signal quality in MIMO systems.
Segmenting codebooks by antenna configuration resolves the trade-off between device complexity and adaptability while reducing feedback overhead.
Segmenting RX RF chains into measurement and reception groups maintains service continuity during intra-frequency measurement gaps.
Terminal devices expand first precoding matrices using column vector arrangement modes to generate second precoding matrices for accurate channel state information.
User equipment obtains beam quality metrics using synchronization signal block reference signals, resolving the trade-off between beam scan time and efficiency.
An RF repeater selects and maps uplink signals to transmission antennas.
User equipment measures reference signals using multiple spatially distinct receive beams to identify optimal downlink transmission parameters.
Wireless devices transmit sounding reference signals to enable network-side precoder selection for uplink beamforming.
Time-division multiplexing transmits control signals via wide beams and data signals via narrow beams within a single interval.
A rotatable antenna apparatus uses a coiled cable housing with a control mechanism to manage winding length.
Mapping user events to multidimensional vectors resolves the trade-off between information representation accuracy and analysis efficiency.
Joint space-time optimization of beamformer weights cancels Alamouti interferences without additional antennas, improving bit error rate performance.
An antenna controller dynamically reassigns shared antennas between wireless subsystems, reducing chassis complexity and space occupation.
Burst transmission of reference signals reduces user equipment power consumption while maintaining accurate channel state information reporting.
UE measures reference signals per sub-band to report preferred TRP beams via frequency-selective CRI reporting.
Transmitter adapts filtering, beamforming, and guard bands to mitigate inter-numerology interference from varying subcarrier spacings.
A shared adaptation unit distributes compensation values across multiple receivers to manage pulse response effects in high-speed integrated circuits.
Client-side beam steering antennas direct radiation patterns to balance cellular loads, resolving the trade-off between device volume and antenna gain.
A ground unit transmits wireless signals through a directionally adjustable beam-forming antenna to an elevated receiver for spatial characterization.
Compressed sensing reduces beam training overhead by extracting essential channel state information for accurate prediction.
A rat race coupler and antenna pair configuration cancels self-interference signals through destructive interference patterns.
User equipment reports beam-number capability during random access to enable efficient resource configuration.
Segmenting the codebook into polarization-specific matrices resolves trade-offs between flexibility and complexity in wireless communication systems.
Defining specific timing offsets for CSI-RS measurement restrictions resolves unclear precoding information determination in non-codebook uplink transmissions.
Access points calculate influence indices to select antenna combinations that minimize signal interference on neighboring devices.
Adapting antenna configuration to form a virtual positioning cell in wireless networks.
True time delay devices eliminate beam squint to maximize channel capacity.
A satellite repeater reconfigures frequency and polarization associations between user link and feeder link beams to adjust communication capacity.
Partitioning the spectrum into sub-bands for Faster-Than-Nyquist sampling mitigates spectral leakage and interference in MIMO systems.
Secondary stations infer transmission modes from control channel characteristics to reduce implementation complexity.
Embedding scheduling information in High Efficiency preambles reduces control overhead and improves throughput in dense wireless networks.
A terminal normalizes beam state information across reception chains to standardize sample collection.
A transmission system dynamically selects active paths and coding modes based on detected quality.
A base station divides antenna ports into groups to transmit precoded reference signals using intra-group beamforming and inter-group non-beamforming modes.
Access point uses orthogonal basis function beams to receive random access channel preambles across time intervals.
A resonant inductance blocks reflected power, allowing standard bulk switches to handle high transmit power without expensive SOI technology.
Dynamic beam management resolves path loss and reliability trade-offs by adjusting antenna parameters in real time.
Wireless access nodes dynamically assign lower order MIMO modes based on measured scattering coefficients to maintain signal integrity.
A multicarrier receiver segments subcarriers into groups with identical phase rotations to perform precise channel estimation.
A user terminal manages periodic channel state information reporting through a control section that handles configuration and activation commands.
Duplicated WLAN preamble portions across sub-bands enable receiver decoding without multiple transceiver chains.
Handover control circuitry adjusts beacon beams to sector boundaries, resolving millimeter wave handover inefficiencies caused by poor beacon reception.
Assigns sector groups to array antennas for simultaneous multi-stream transmission, resolving interference and beamforming time trade-offs.
Transmitting UEs indicate quasi co-location information to receiving devices, resolving channel tracking reliability issues in high mobility V2X networks.
User equipment detects transmit beam misalignment by comparing reference and test receive power values, triggering realignment to maintain signal strength.
First user equipment generates sidelink control information to request channel state reports from a second device.
A receive end device obtains channel state information from selected reporting subbands to generate a measurement report.
Iterative sub-sampling of omnidirectional antenna elements constructs spatial covariance matrices to resolve signal processing complexity in wireless networks.