Using NAS messages with LCS-UP payloads clarifies user-plane positioning connection setup, modification, and cancellation for better communication performance.
First arrival path detection, LOS/NLOS classification, and base-station synchronization improve NR UE positioning accuracy with lower complexity.
Controlled UWB error injection and range settings blur distance and angle data to protect privacy without fully disabling nearby detection.
A UE estimates position from expired satellite data, then sends pseudorange context so a server can rebuild a more accurate fix.
Positioning reports sent through RACH preambles or PUSCH let idle or inactive NR devices improve location accuracy with lower latency.
Assistance information for index-modulated sensing waveforms improves signal processing and MIMO channel estimation in challenging downlink conditions.
UWB tracking and MEMS sensor routing deliver bills to the nearest user device at POS, enabling faster remote payment with less staff interaction.
Multi-stage coarse-to-fine sensor grid preprocessing improves obstacle-rich position estimation by balancing accuracy with real-time computation.
A two-step PRS scheme uses coarse then fine measurements to improve wireless device positioning accuracy while limiting interference and node energy use.
On-demand aperiodic PRS triggering improves positioning flexibility and resource use while reducing network power and signaling overhead.
Dynamic positioning time windows let a WTRU prioritize positioning SRS transmissions, cutting measurement-gap latency while preserving accuracy.
Misplaced compact devices are located by reusing onboard microphones to detect external audio and return wireless signals for positioning.
Gap-compensated LIDAR scanning improves train obstacle detection on and near the track by filling beam blind spots during vehicle movement.
Range-specific correction values improve UWB angle-of-arrival accuracy across different phase ranges for more reliable device positioning.
When LOS training data is imbalanced, UE-triggered minority-class sampling helps rebalance the detector and improve TOA accuracy.
A location-aware GNSS tracking mode cuts UE power and compute use by tracking fewer satellites where signal quality and accuracy remain sufficient.
Adaptive AI and non-AI model selection in NG-RAN improves UE positioning accuracy while limiting signaling overhead and compute load.
Moving the antenna across sub-regions helps verify inferred wireless tag locations and warn of scheduled-versus-read mismatches.
Using PDoA between mirrored antennas and AoA from a remote device, this case determines relative orientation without extra sensors or added power.
Validated type1 and type2 NR assistance data lets terminals report positioning measurements in RRC_INACTIVE with SRB2 small data support.
Adaptive RS profile reporting lets a WTRU match channel conditions, improving localization and sensing accuracy with controlled signaling overhead.
A unified neural model cleans BLE channel sounding data and estimates distance more accurately under indoor multipath and channel noise.
Candidate UE capability and location exchange helps choose a sidelink anchor UE with better positioning reliability and lower V2X latency.
Object-specific acoustic signatures let one array estimate range and direction, localizing airborne launch sites in noisy conditions.
Shared network-node measurements and time-of-flight comparison help select positioning reference units for faster, more accurate UE location estimates.
Differential signal quality computed on the terminal cuts positioning data traffic, easing location server load and packet loss.
Propagation-time statistics and Monte Carlo sampling improve transmitter positioning under non-line-of-sight reflections while reducing computation.
Object-specific acoustic signatures let one array estimate range and direction to locate airborne launch sites with less infrastructure.
When geo-tags enter metal containers, proximity-based handover shifts location reporting to a higher-category tag to cut battery drain.
Preconfigured PRS switching helps a WTRU maintain positioning continuity during handover between cells without interrupting service.
Multiple directional positioning modules use RSSI difference and AOA range selection to improve robot-to-device alignment at lower setup cost.
Facial recognition and background photo retrieval let a digital picture frame show relevant images without manual account syncing.
Direct exchange of relative positioning reference signals cuts absolute-position calculations, reducing delay and improving terminal-to-terminal accuracy.
Constructive and destructive interference mapping pinpoints indoor RFID tags more accurately than TDOA, PDOA, or RSSI alone.
Direct UE-to-UE S-LMC coordination improves positioning accuracy while reducing network dependency and signaling overhead.
Inter-sensor timing and hydrophone arrival data correct underwater acoustic distance errors caused by changing sound velocity.
GPU-based RF reflection modeling uses 2D DEMs and viewsheds to generate accurate 3D wireless heatmaps on end terminals in seconds.
A mobile localization manager alternates low-power tracking with triggered high-accuracy updates to meet error targets without excess energy use.
UE-reported virtual TRP measurements turn multipath reflections into usable signal sources, improving 5G positioning when LoS paths are blocked.
UE capability exchange and selective subcarrier phase reporting improve carrier phase positioning accuracy while reducing latency and spectral overhead.
Nearby premium UEs relay round-trip timing over sidelink links to improve NR-Light UE positioning accuracy and coverage.
Compares new and legacy UE positioning outputs, then switches configurations when ML accuracy falls below location service thresholds.
NAS transport carrying LCS-UP payloads helps terminals and networks establish or modify user-plane positioning connections with better signaling flow.
An AI/ML model lets the UE skip low-quality PRS measurements, reducing battery drain and processing while preserving positioning reliability.
Mode-switched UWB anchor scheduling balances localization and radar sensing to detect users and approaching objects with low power, even when parked.
Radio signal reflections and movement patterns define room boundaries and functional zones without tags or manual setup for passive tracking.
Defines sidelink-based UL-PRS references so anchor UEs can support more accurate UE positioning without new network infrastructure.
Message-sequence consistency checks validate UWB time-of-flight ranging and detect frequency manipulation attacks before distance errors propagate.
By checking coordinate deviations during base station handover, this case maintains precise positioning and prevents location jumps.
Iterative covariance whitening and residual scaling balance sensor noise models, improving pose graphs and trajectory planning.