Synchronisation Arrangement TRIZ Cases

Target-base-station cancellation of L1/L2 triggered mobility avoids unnecessary handovers, cutting latency and improving resource allocation.

Centralized monitoring analyzes node reporting data to detect relative time errors in real time and identify faulty synchronization nodes.

Immediate SSB transmission without LBT cuts initial access delay, while later signals still use sensing to preserve channel reliability.

Priority-based SSB selection and time-difference HARQ feedback improve mmWave sidelink synchronization and cut V2X resource delays.

Switchable directional antennas replace costly phased arrays to measure AoA and estimate 5G base station locations with better accuracy.

Multiplexing non-unicast signals into DRS discovery bursts uses relaxed LBT to improve shared-spectrum resource use while managing fairness.

Coarse time alignment plus Kalman filtering improves synchronization between vehicle-mounted devices without added hardware, reducing delay-driven positioning errors.

Local uplink measurements at a network-controlled repeater are reported to the gNB to improve UE presence detection and mobility handling.

Pre-indicated second SSB frequencies let a UE measure within the current BWP, reducing retuning and downlink reception interruptions.

TSN-based synchronization and uplink packet summation help distributed antenna nodes use bandwidth efficiently while limiting latency.

By marking SS/PBCH overlaps and switching intervals as unavailable, RedCap UEs can repeat PUSCH uplink data more reliably.

Associating beam reports with neighbor nodes enables multi-TRP reporting and faster TA acquisition with less interference in mobility scenarios.

Conditional receive timing adjustment aligns downlink slots in full-duplex 5G/NR links, reducing interference and timing mismatch.

By decreasing a precomputed random access offset, the terminal keeps timing advance non-negative for more robust satellite uplink alignment.

Timing-difference reporting lets the network verify satellite terminal position and reduce tampering or large location errors.

ML predicts unmeasured synchronization signal block values from a subset of beams, cutting beam management latency, overhead, and UE power use.

Capability information from the wireless network guides TSN traffic grouping and timing to maintain low latency and reduced jitter.

Timing advance and PUR validation let IoT user equipment send small uplink data with less signaling and lower power use.

UEs choose uplink resource pools by timing advance accuracy to limit interference and avoid delay from repeated TA reacquisition.

Separating GNSS measurement from TA reporting prevents outdated location use and improves terminal-network synchronization for weak IoT devices.

Multi-frequency FTM metrics classify AP pairs as LoS or NLoS, improving timestamping accuracy and indoor distance estimation.

Repeated and combined downlink shared channel transmissions improve system information decoding at coverage edges while lowering device power use.

A coherence indicator across CSI-RS resources lets UEs improve frequency synchronization and CSI reporting without extra verification.

Reduced-content sync blocks and terrestrial-assisted beam data cut UE energy use while preserving non-terrestrial connection setup.

Phase-shifted sidelink positioning reference signals improve wireless location accuracy while balancing device complexity and link reliability.

Reduced-content sync blocks and idle-mode beams cut non-terrestrial access energy use while preserving connection setup reliability.

Phase-shifted sidelink PRS resources improve 6G positioning accuracy while maintaining reliable low-latency communication for devices and vehicles.

Reducing PSBCH symbols in sidelink synchronization blocks cuts V2X power use and overhead while preserving effective UE synchronization.

Direct BIG/BIS packet coordination synchronizes audio between nearby devices without external helpers, cutting latency and bandwidth overhead.

Select timing advance for candidate cells using higher-layer parameters and rules to keep uplink timing stable during inter-cell mobility.

When two network nodes configure the same carrier with close timing offsets, one terminal measurement can replace redundant scans and save resources.

Indication data added to sidelink synchronization blocks helps distinguish UEs and beam directions, improving FR2 beam management quality.

Frequency-domain phase compensation and adaptive filtering keep OFDM channel smoothing effective despite timing offset and excess delay.

Two timing advance offsets per serving cell keep uplink transmissions synchronized across multiple TRPs and prevent interference.

Location-aware scheduling keeps nearby UEs from conflicting uplink and downlink slots, reducing HD-FDD interference without complex RF filtering.

Per-SSB beam channel remapping shifts and clusters common-channel resources to cut energy waste and improve spectral efficiency.

Higher-band satellite time sharing with dynamic signaling reduces interference, jamming, and spoofing while improving PNT accuracy.

CU-delivered F1 signaling shares random access configuration and TA so source cells can speed uplink synchronization during inter-DU mobility.

Terrestrial beacons provide location and time so LPWAN endpoints send to satellites only when overhead, cutting wasted transmissions and battery drain.

Dynamic E-CCE sizing adapts E-PDCCH resources to changing system and user configurations, improving scheduling efficiency with lower complexity.

Per-stream TSN assistance in 5G uses drift-aware time comparison to improve scheduling accuracy and synchronization across TSN streams.

A dedicated common CORESET aligned with SSB cuts RF retuning, cell search delay, and unnecessary decoding for reduced-capability UEs.

A two-stage sidelink sync scheme uses coarse and fine signals to lock OFDM timing and identify the transmitting UE with lower complexity.

When SLSS or PSBCH transmissions collide on PC5, priority-based handling preserves higher-priority signaling and improves sidelink reliability.

Uses a timing-aware PDU anchor at the base station to deliver accurate 5G clock synchronization without specialized timing hardware.

Beam-related paging assistance helps base stations allocate resources more precisely and cut wireless paging latency.

Nearby user equipment cooperates through relay and sidelink links to extend mmWave coverage, improve reliability, and lower power use.

Differentially encoded distributed bursts preserve LPI/LPD synchronization while collapsing receiver search to one dimension.

TOA-based correction lets a UE predict timing advance in high-speed links, reducing downlink signaling while keeping uplink synchronization accurate.

When LBT blocks the planned sync burst, the network retries within a preset window to preserve fair channel access and reliable cell search.