Synchronisation Arrangement TRIZ Cases

By accounting for base-station TEG delays in PRS and SRS timing, this case improves double RTT accuracy for more precise 5G positioning.

Multiple PRACH repetitions tied to valid SSB-associated occasions improve NR uplink coverage for short preambles during access and recovery.

Grouped RA preamble repetition links ROs to PDCCH search spaces, improving NR random access under weak beam quality and limited coverage.

UEs select Type 1 or Type 2 sidelink access and priority class to balance fast transmission with fair coexistence in unlicensed spectrum.

Configured time gaps between SRS transmissions reduce clock-drift error in RTT measurements and improve UE positioning accuracy.

Common reference timing and device-specific offsets keep PA CTE transmissions synchronized, avoiding collisions and improving AoA location accuracy.

Dedicated and shared frequency resources let LTE and NR share spectrum while protecting LTE demodulation and NR measurement reliability.

Clock alignment improves when UEs select reference time from configured broadcast or unicast transmissions with closely timed delay compensation.

Preconfigured PRS timing and uplink reporting resources cut UE location measurement delay while simplifying scheduling in wireless systems.

Predefined bit-pattern checks identify valid break+sync headers and baud rate in LIN signals without multi-thread detection complexity.

TA values are sent only when preset NTN conditions are met, cutting signaling overhead while preserving uplink synchronization accuracy.

Stored waveform data lets a moving relay forward IoT signals when base-station contact becomes available despite short satellite communication windows.

Pre-timed configuration sets let UEs switch neighbor cell lists autonomously in LEO NTN, cutting signaling load while keeping updates accurate.

A scheduled timing advance gap lets user equipment pre-acquire neighbor timing values, cutting handover delay for single-chain devices.

Synchronized FSMs let secondary radio heads learn the primary dithering sequence, preserving clock phase, SNR, and bandwidth under EMI limits.

A staged switch from primary to standby timing reduces clock-node frequency deviation and prevents terminal instability during resynchronization.

A central controller schedules TWR, UL TDoA, and DL TDoA in shared UWB rounds to cut collisions and improve tracking reliability.

Network-assisted UE positioning uses random access in idle state to cut power use, OTA bandwidth, and signaling load.

Configured GNSS measurement gaps let NTN user equipment acquire position fixes in connected state without disrupting data transmission or wasting power.

Serving AMF identification lets the time synchronization function subscribe only when UE coverage matches the service area, cutting signaling waste.

Multiple preamble sequences and integer-multiple bandwidth mapping help NTN random access handle Doppler shifts while staying compatible with terrestrial uplink.

Preconfigured candidate cells and preserved source cell settings enable lower-layer mobility with less latency, interruption, and signaling overhead.

A TAC-based GNSS validity extension keeps satellite terminals synchronized longer, reducing random access, signaling overhead, and power use.

Signal-based timing advance validity helps keep uplink transmissions aligned to a target cell while avoiding unnecessary timing updates.

Pre-obtaining target cell timing advance lets a terminal complete uplink synchronization before handover and cut delay for XR and cloud gaming.

Preconfigured and activatable uplink resources cut 5G handover interruption while improving grant utilization across candidate cells.

Calibrates codec delays across wireless audio devices to align audio with video and reduce multi-participant playback mismatch.

Synchronization timing differences in sidelink links are corrected using shared terminal timing information to improve positioning accuracy.

Combining uplink and downlink reflections cancels oscillator offset and UE mobility errors for more accurate target position and velocity sensing.

Timing assistance lets a master UE coordinate group sidelink sync-source switching, reducing disruption, latency, and redundant sources.

Uplink pre-compensation uses reference time plus feeder and service link delay data to limit phase distortion in NTN communications.

A closed-loop delay circuit uses peak asymmetry feedback to align RF and supply timing, reducing distortion and gain variation.

A modified and conjugated preamble sequence improves AGC, signal detection, and time-frequency synchronization with lower reception complexity.

Containerized CSR and PTP timing let lower-layer split RANs keep nanosecond RU and DU synchronization without costly CSR port upgrades.

Timing advance trends let a wireless device predict satellite service loss and warn users before coverage drops.

Adaptive loop filtering and resampling align wireless audio playback across receivers, reducing latency and preserving inter-channel phase coherence.

Uses SSB-based timing reference points and propagation-delay compensation to align downlink and uplink frame timing in future 6G networks.

A UE sends a random access preamble to one TRP and gets timing advance from another, enabling synchronized M-TRP links across unsynchronized cells.

Unique timing offsets let nearby backscatter tags share one reader carrier with less interference, improving simultaneous ambient IoT communication.

Preconfigured conditional handover uses GNSS validity status and ephemeris data to cut NTN handover delay and failures.

MMSID-based prioritization and multiplexing keep related uplink media flows synchronized for immersive VR within timing thresholds.

Adds timing, duration, velocity, and periodicity to UE behavior data so network devices can improve mobility handling and resource allocation.

Parameter-based PDCP discard timers remove obsolete SDUs with matching service IDs to keep immersive VR multi-modal data synchronized.

Segmented RB sets let terminals with different capabilities send or receive S-SSBs while maintaining reliable sidelink synchronization.

OOK multiplexed within OFDM symbols lets standard and low-power 5G receivers share synchronization with lower energy use.

When candidate cell or cell group settings change, the terminal selects an activated target and starts random access only when needed to avoid resource waste.

Base-station delay measurement and timing advance enable 4G/5G satellite random access without GNSS receivers or ephemeris broadcast.

Separate timing advance values let each TRP manage UE uplink alignment and halt scheduling when one synchronization becomes invalid.

Dynamic discard timer adjustment by traffic type keeps multi-modal packet streams synchronized and reduces VR media latency.

Status-driven switching between base stations, mobile vehicles, and satellites keeps communication continuous and data synchronized in emergencies.