Synchronisation Arrangement TRIZ Cases

A user equipment determines timing advance timer values based on selected configured grant resource periods.

An estimator and sample rate converter synchronize wireless network endpoints, resolving channel-to-channel latency and packet loss issues.

A terminal manages uplink transmission timing synchronization across aggregated carriers using activation messages and suspension indicators.

Nodes calculate timing references using weighted averages of terrestrial signals to resolve GPS interference vulnerabilities in wireless networks.

Grand master clocks calculate transmission delays to generate precision timing signals, resolving synchronization accuracy deterioration in complex 5G networks.

Firmware layer handles UWB clock synchronization requests without activating the application processor, reducing power consumption and maintaining accuracy.

A user equipment method releases uplink resources when shifting from a synchronized to an asynchronous state.

Repeated Physical Broadcast Channel transmissions extend coverage for Machine Type Communication devices in poor signal areas.

A transmission point configures synchronization signal blocks as positioning measurement signals for user equipment.

A frequency offset estimation method uses multiple synchronization searches to identify consistent timing offsets across correlation results.

Time domain correlation detects PSS frequency and timing offsets, enabling accurate synchronization in flexible TDD systems.

Merging SSBs and CORESETs into single resource blocks cuts beam switching overhead for higher sub-carrier spacing.

A user equipment receiver unit monitors synchronization signals and paging channels within its specific bandwidth capability.

Segmented extended primary synchronization signals resolve interference between macro and sub base stations, ensuring reliable device synchronization.

Network devices downgrade stratum indices to artificial values during synchronization signal timeslot reselection, preventing loops when targets fail.

A clock correction system synchronizes sender and receiver frequencies using measured connection intervals to maintain stable audio playback.

Aligning PUR release counter values prevents premature resource release, reducing interference and conserving computing resources.

Setting a transmission interval K reduces data overlap and interference caused by differing propagation delays.

Segmented acquisition channels minimize receiver scan times and maximize payload throughput in shared spectrum environments.

Iterative timing value updates calculate propagation delay bias to correct synchronization errors in ultra-dense networks without increasing signaling overhead.

Dedicated synchronization signal generator produces timing signals for remote interface units to execute state machines independently.

New multislot configurations enable flexible timeslot assignment without timing advance offset, improving resource allocation efficiency.

TCP proxy modules encapsulate setup messages in non-TCP connections, bypassing the three-way handshake to reduce latency over high latency backhaul networks.

A user equipment transmits radio frequency chain counts to a base station to configure device-to-device resource pools.

A handover command embeds a timing advance value to enable direct uplink synchronization without executing the random access channel procedure.

Generating synchronization sequences via node identifiers reduces system overhead while enabling accurate node identification in multi-node wireless systems.

A base station generates synchronization channel signals encoding cell type information for terminal devices.

User equipment estimates round trip time to shift reception windows, resolving access timing inaccuracy caused by large propagation delays.

Target nodes compute clock deviation using intermediate node waiting times and source receiving timestamps, resolving multi-hop synchronization precision loss.

Designating a master controller to distribute timing signals reduces differential errors and improves wireless service reliability.

Segmented beacon, paging, and TIB periods reduce interference in dense networks while maintaining accurate timing measurements.

A subframe indicator on a licensed carrier directs user equipment to detect reference signals on unlicensed bands.

A user equipment derives a synchronization signal block index using serving cell timing during inter-frequency measurement.

A D2D terminal provides a common time reference through autonomous synchronization signals for device-to-device communication.

A directional MANET mechanism synchronizes nodes via pseudo-random time slots without GPS infrastructure.

A terminal determines beam-specific time offsets using a temporary cell-radio network temporary identifier in message 2 to compensate for transmission delays.

Autonomous timing adjustment resolves high-speed reception quality degradation by switching operational schemes.

Terminal selects optimal reference cell from assistance data to measure RSTD signals, resolving poor channel states in heterogeneous deployments.

Mobile stations exchange synchronization signals using cell control information to resolve initial access bottlenecks in device-to-device networks.

A seismic collector uses interrupt mode data transfer to achieve precise network timing synchronization.

A user device reserves time-frequency resources for Sidelink ranging signals using Sidelink Control Information to coordinate transmission.

Terminal device decouples location determination from message transmission across distinct radio access technologies.

Virtualized infrastructure nodes route data packets to logical networks, eliminating geographical and capacity limitations.

User Equipment selects downlink reference resources to configure uplink beam association and power control parameters.

Iterative drift correction aligns access device clocks with controller time, preventing time drift errors in wireless mesh networks.

A timing mechanism determines uplink processing duration based on assigned timing advance values for user equipment.

Network entities determine timing adjustment factors for integrated access and backhaul nodes.

Preconfigured uplink resources enable direct transmission in RRC idle mode, reducing power consumption from frequent state switching.