A base station algorithm dynamically selects optimal numerology structures to meet diverse user service requirements.
New information elements signal precise user equipment capabilities, reducing signaling overhead while maintaining accurate resource allocation.
Segmented OFDM symbol allocation and cyclic prefix adjustments preserve orthogonality under channel delay spread.
Network device schedules frequency domain resource units in evenly spaced bandwidth regions to enable data channel transmission.
A wireless device determines specific carriers for individual radio frequency chains to apply measurement gaps independently.
A first node transmits K orthogonal radio signals to carry uplink control information across time-frequency resource blocks.
Transmitting channel occupancy signals after listen-before-talk reserves access time, preventing device collisions in directional beam networks.
Segmenting component carriers across distinct base stations resolves frequency-based coverage imbalance while maintaining high data rates.
Dynamic SFI bit length adjustment reduces PDCCH resource overhead while maintaining full slot format coverage in NR TDD deployments.
Rotates OFDM symbol trajectories in the complex plane to reduce peak-to-average power ratio.
A PTRS resource block structure inserts specific sequences into OFDM symbols to estimate phase noise in high-frequency wireless communications.
Interleaved orthogonal sub-carriers and optimized preambles enable real-time wireless industrial communication while minimizing electromagnetic interference.
A wireless device determines carrier aggregation configurations using predefined rules and device capabilities to receive enhanced multimedia broadcast multicast services.
A base station reconfigures carrier aggregation by swapping primary and secondary designations while maintaining the radio link.
Dynamic soft buffer allocation proportional to subcarrier counts increases transmission rates while minimizing uplink data latency.
Allocating data symbols across non-contiguous subcarrier blocks to optimize frequency diversity in wireless communication systems.
A repetition-based uplink mechanism configures user equipment to perform multiple transmissions on shortened time intervals.
Dynamic DCI activation of pre-configured CSI-RS trigger states reduces latency and complexity in wireless communication systems.
A receiver recovers local service data symbols from OFDM signals using hierarchical modulation and channel estimation.
Merging separate control messages into a single downlink control information frame reduces signaling overhead while maintaining precise allocation data.
A polyphase transform block converts clipping noise into spectrally translated components for crest factor reduction.
Dynamic guard band sizing adapts to interference levels and terminal positions, reducing spectrum waste while maintaining tolerable inter-band interference.
Segmenting connections resolves pathloss imbalance between macro and pico base stations, improving uplink throughput at cell borders.
A dynamic CORESET resource allocation method adjusts time-frequency resources and CCE patterns based on real-time usage status.
A base station allocates bandwidth parts for LTE and NR V2X operations using a dynamic indicator in downlink control information.
Base station divides system band into partial bands to configure time-axis high and low density reference signals for user equipment.
Offset information configures tracking reference signal bursts to reduce secondary cell activation latency and signaling complexity.
Signaling mechanism establishes secondary cells for uplink control information when timing advance values are missing.
Segmenting OFDM spectrum into groups allows independent scheme selection, improving channel utilization while managing device complexity.