Network entities adjust communication channels based on user equipment sensing reports to mitigate interference from non-coordinating nodes.
Base station configures CSI-RS transmission patterns to optimize signal reception in unlicensed spectrum.
Standardizing the sampling frequency eliminates switching delays, enabling rapid classification of diverse signal bandwidths using machine learning.
User equipment detects missing reference signaling in unlicensed channels, modifying Doppler estimation computations to prevent inaccurate bin selection.
Segmenting carrier bandwidth into sub-bands reduces collision probability while maintaining resource utilization.
Iterative removal of narrowbanded signals using frequency-shifted measurements to enhance detection accuracy.
Segmented protocols allow low-complexity devices to join temporary local networks, reducing latency and avoiding interference with high-performance users.
Base station sends uplink grants for channels passing single clear channel assessment to user equipment.
User equipment determines activation delay times based on serving cell numerology to reduce secondary cell activation delays below five milliseconds.
A hybrid network protocol allocates communication resources using time, frequency, spatial, and code dimensions for simultaneous radar and radio operation.
Physical indication signal triggers sounding reference signals on available carriers, resolving channel state estimation gaps for unscheduled user equipment.
Listen-before-talk on segmented physical uplink control channel resources resolves unlicensed band access conflicts while maintaining transmission reliability.
Segmented and dynamic control channel formats enable unscheduled uplink transmissions in unlicensed spectrum while reducing configuration complexity.
Dynamic guard band width determination mitigates interference between different radio access technologies while optimizing spectrum utilization efficiency.
Coupling circuits detect idle frequency bands in multi-carrier channels to enable device communication via power lines.
Terminal device segments SSB transmission across multiple time domain resources, switching to an available resource when initial Listen Before Talk fails.
User equipment receives sounding reference signal configuration information to perform rate matching for uplink data transmission.
Base station configures candidate transmission timings for terminals performing channel access procedures in unlicensed bands.
A signal detection apparatus calculates cyclic autocorrelation values using a common area for multiple candidate signals in shared frequency bands.
Transmitter analyzes composite minimum SNR curves against thresholds to resolve interference and jamming bottlenecks.
A base station adjusts channel detection timing to avoid collisions with synchronization signals in unlicensed bands.
Access nodes determine unlicensed carrier intrinsic cell channel load to initiate precise channel deployment operations.
A scheduling request mechanism uses a dedicated physical channel to enable flexible uplink resource allocation for network terminals.
A terminal device manages unallocated frequency bands using dynamic listen-before-talk scheduling and carrier aggregation.
Multitaper spectral estimation identifies available subcarriers using prior assignment knowledge to reduce computational complexity.
Coordinated carrier selection reduces ping-pong effects and imbalanced allocations by exchanging feedback between network nodes.
A MIMO network node forms null signal beams on estimated channels to transmit in unlicensed bands.