Synchronisation Arrangement TRIZ Cases

User equipment derives uplink transmission timing using tracking or channel state information reference signals within an active bandwidth part.

Network Exposure Function configures 5G ports using Best Master Clock Algorithm or external schemes to expose time synchronization services.

Wireless devices trigger synchronized backoff procedures upon receiving congestion indications to defer scheduling request transmissions.

A ProSe UE extends the sidelink synchronization signal measurement period when neighboring transmissions are dropped to maintain reference signal received power accuracy.

Time source indications identify devices as timing sources, enabling infrastructure equipment to prioritize transmission and minimize delays.

Network switches modify timing messages to account for switch-based delays, resolving scalability limits of ARINC 429 in broad avionics networks.

Segmenting PLMN lists and applying preliminary action prevents wasted time on incompatible networks while optimizing power consumption.

A radio network node adjusts detection settings based on measured time and frequency drift from sparse synchronization signals.

Vehicles broadcast synchronization frames to maintain network timing, resolving communication disruptions when entering GPS dead zones.

User equipment calculates timing advance values using receiving and reference time differences between source and target base stations.

An adaptive random access method allows terminals to adjust procedures based on network conditions.

Wireless nodes receive timing advance commands to reset alignment timers, preventing service interruptions from expired synchronization windows.

Network-side TSN translators convert PTP messages to reduce terminal power consumption.

User equipment estimates fractional frequency offset and coarse timing using the cyclic prefix in received signals.

A terminal apparatus receives assistance information from a primary cell to synchronize with secondary cells.

A network side device initiates random access on a designated secondary cell carrier to support user equipment with multiple uplink timing advances.

Transmitting multiple timing advance commands synchronizes distant mobile units, resolving inter-symbol interference at extended cell edges.

A synchronization signal design swaps PSS and SSS positions across subframes to support cost-reduced user equipment.

Wireless devices estimate and compensate for frequency offsets caused by low-power cluster head oscillators to improve cell search accuracy.

Target cell synchronization prevents data interruptions during aerial vehicle handovers while reducing uplink interference.

A detection system acquires time offsets between base station nodes to identify pseudo GNSS interference presence.

Puncturing cyclic prefix portions of extended symbols aligns startpoints with normal symbols, resolving sub-carrier spacing misalignment.

Assigning distinct cyclic shifts to discovery reference signals across neighboring base stations.

Dividing synchronization signal blocks into groups with specific repetition numbers reduces time delay while maintaining uplink coverage recovery.

Reference slave receiving apparatus transmits wireless control signals to synchronize timing across multiple master devices.

Dynamic sidelink synchronization block transmission adapts to subcarrier spacing, reducing latency while maintaining detection accuracy.

Dynamic bandwidth configuration resolves narrowband channel deployment bottlenecks by reducing signaling overhead while improving resource utilization.

A user equipment disables neighbor cell measurement triggering based on network coverage conditions.

A resilient virtual ground system uses spatially diverse receivers to coherently combine satellite signals.

Wireless devices determine sidelink transmission time duration using mapped timing advance group indices derived from control resource set pool identifiers.

Base stations exchange usage information to dynamically select adjacent or shared bands, resolving interference capacity trade-offs.

Processor aligns Bluetooth transactions with LTE frames using legacy commands to enable simultaneous operation.

Dynamic frame configuration adapts subframe structures to channel occupancy, improving utilization while maintaining backward compatibility.

A timing advance mechanism segments delay compensation into integer and fractional components to adjust wireless uplink transmission initiation times.

A user terminal control section determines radio frame timing alignment between cells using measurement signals without full PBCH decoding.

A PDSCH region allocates resources for remaining minimum system information reception via synchronization signal blocks.

Network node configures an aiding wireless device to transmit synchronization signals, enabling weak signal devices to establish connections.

Segmenting measurement gaps by frequency range improves cell identification precision while reducing device complexity from unified pattern constraints.

User equipment selects a specific compensation duration from a satellite-associated range to correct transmission timing.

User equipment detects secondary cell group failures using downlink timing metrics, reducing latency by preventing unsuitable activation.

A signal processing device transmits data frames and synchronous frames in vacant frequency bands to enable accurate detection.

A relay user equipment discovers device-to-device links by transmitting cell identifiers to enable resource allocation.

Extracting hard data from search probes reduces memory requirements while improving detection accuracy in noisy downlink signals.

Multiplexes synchronization signals across network nodes and reconfigurable intelligent surfaces to provide user equipment with multiple access options.

A base station transmits reference signals via non-terrestrial devices and reports timing data to the location management function.

Mapping the physical sidelink broadcast channel to dedicated OFDM symbols improves synchronization reliability in vehicle-to-everything networks.

A cross-layer time synchronization method exploits physical layer timing recovery to derive clock frequency offset from timestamp-embedded messages.

A receiver system using ultra-high-speed data converters to directly digitize RF signals at multiple GHz rates.

User equipment estimates Doppler shifts from downlink signals to correct uplink frequencies, resolving motion-induced mismatches in non-terrestrial networks.