First devices obtain positioning reference signal configuration to establish direct sidelink links, reducing latency by removing base station intervention.
A group location service mechanism positions multiple terminal devices simultaneously using broadcast messages.
Coordination logic assigns frequency offsets and time slots to ambient power devices, resolving uplink frame collisions.
Terminals transport data over sidelinks on shared bands by executing listen-before-talk procedures to resolve resource utilization conflicts.
Dynamic positioning reference signal priority adjustment reduces latency by prioritizing measurements when scheduling intervals exceed thresholds.
A radar reference signal generator iteratively adds scaled signals at specific time points to shape waveform correlation properties.
A positioning apparatus reuses reference signal measurements from prior sessions to initialize new processes.
Segmenting slots into mini-slots enables intra-slot frequency hopping, reducing transmission latency while maintaining reliability for URLLC uplink data.
Dynamic periodicity adjustment resolves the trade-off between energy conservation and measurement latency in 5G networks.
Bimodal frequency offsets increase differential phase change between simulcast signals, reducing self-interference and bit errors.
Configurable scheduling grants align sounding reference signal transmission with physical uplink shared channel data, reducing radio resource waste.
Dedicated LLR scaling reference signals allow XR devices to perform scaling estimation and decode pre-equalized data while lowering power consumption.
Segmenting ML training and execution across network entities resolves complexity trade-offs while enabling high-accuracy channel estimation.
Segmenting frequency bands into distinct sub-bands prevents sounding reference signal overlaps between sub-band full-duplex and non-sub-band symbols.
Applying cyclic shift rules to transmission comb eight maintains orthogonality between SRS ports, increasing capacity for multi-port resources.
Base station signals skipped data channels via demodulation reference signals, reducing user equipment power consumption and interference.
Network device determines timing error parameters from received uplink signals to compensate for satellite movement delays and improve positioning accuracy.
Base station divides Position Reference Signal into parts transmitted on separate symbols to match user equipment bandwidth capabilities.
A minimum scheduling offset manages bandwidth part switching to reduce power consumption.
A user equipment priority scheme directs a single narrowband processor to monitor synchronization and paging signals across frequency ranges.
Dynamic pattern selection avoids UE-RS interference, enhancing channel estimation reliability and network performance.
First terminal device transmits reference signals and sidelink channels within a single time unit for absolute or relative positioning.
A user equipment indicates its machine learning training state to request specific demodulation reference signal transmissions.
Segmenting downlink preemption indications by TRP ID resolves decoding performance degradation in non-coherent joint transmission.
Configures frequency division multiplexing parameters to align with narrowband transmission bandwidths for user equipment random access procedures.
UE-specific TDD configurations enable full-duplex transmission across multiple TRPs using spatial differentiation.
Prime-numbered interlace segmentation reduces peak-to-average power ratio and cubic metric values for efficient uplink transmission.
Adjusting frequency hopping boundaries by parity eliminates unallocated resources in multiplexed slots, improving radio resource utilization efficiency.
Neural network predicts uplink interference probabilities to dynamically select sounding channel resources, reducing block error rates from cyclic shift re-use.
A single resource element demodulation reference signal enables receiver amplitude and phase calculation for reduced-capability user devices.
Segmenting positioning reference signals across distinct time-domain resources clarifies repeater coverage, reducing measurement ambiguity in 5G networks.
A RAN intelligent controller selects candidate beams using historical data and real-time measurements to optimize handover procedures.
A wireless communication device generates a first signal indicating its base station coverage range and network side positioning status for use by other devices.
Network devices transmit SRS hopping parameters and partial sounding indicators to terminal devices for flexible frequency resource usage.
Segmenting transport blocks into code block groups reduces CRC padding overhead while maintaining phase continuity in New Radio coverage enhancement.
Mobile terminal maps shared channel signals across multiple basic frequency blocks to achieve enhanced frequency diversity effects.
Terminal devices detect sidelink positioning reference signals and transmit indication information to network devices.
Quantized reporting options eliminate double-quantization errors by relocating calculation steps to the user equipment.
Sidelink positioning reference signal processing enables direct device-to-device relative positioning measurements in wireless networks.
Dynamic switching between single and multi-transmission reception point modes resolves the contradiction between reliability and device complexity.
A terminal selects codewords and demodulation reference signals to transmit uplink data via non-orthogonal multiple access.
Dynamic bandwidth adjustment optimizes ranging accuracy while managing listen-before-transmit success rates in distributed vehicle networks.
User equipment transmits channel estimation capabilities to the network node, reducing processing complexity during subband full duplex scheduling.
A radio access node activates mobility pilot signals only when triggered by device performance metrics.
User equipment receives slot offset information to trigger sounding reference signal transmission.
Segmenting subframes into fixed and flexible categories manages interference to uplink transmissions while optimizing resource utilization.