Synchronisation Arrangement TRIZ Cases

Aligns secondary transmitter signals with a master station using GPS timing to eliminate interference and ensure identical reception.

L1 or L2 signaling selects PRS configurations to balance positioning accuracy with energy consumption.

A terminal determines subframe status generation reasons to detect wireless link quality accurately.

Synchronization stations organize peer-to-peer devices into a hierarchy to reduce power consumption from continuous polling.

Network devices determine synchronization signal block timing based on frequency range and subcarrier spacing to improve initial access efficiency.

User equipment selects sidelink synchronization signals based on priority order to resolve coverage gaps and interference between 4G and 5G base stations.

Master device transmits synchronization signal frames containing phase compensation information to slave devices over a single bidirectional interface.

Sidelink synchronization source selection determines optimal reference signals to maintain positioning accuracy when GNSS availability is limited.

Auxiliary uplink component carriers enable sounding reference signal transmission on unpaired bands.

A reference user equipment transmits signals to multiple base stations, enabling carrier frequency offset estimation and time-varying channel calibration.

Master node distributes time codes with serial numbers so slave nodes compensate for transmission delays, reducing synchronization errors in film production.

A user equipment selects a new receive beam and transmits channel state information before replacing the current beam.

A sending device transmits a first signal containing timing information and resource configuration data to enable accurate sidelink communication.

Sampling synchronization signal subcarriers based on channel state information reference signal density to enable accurate measurement reporting.

Detecting expired timing advance values triggers base station reconfiguration, releasing reserved resources and reducing signaling overhead in IoT networks.

Relay transmission points multiplex access and backhaul links to resolve interference while maintaining network capacity.

A terminal acquires synchronization via a reference cell within a cell cluster, eliminating cross-base station errors while maintaining low device complexity.

A wireless terminal manages uplink signal transmission during base station handovers by detecting timing conflicts between concurrent signals.

Ground station multiplexes optical signals to distribute reference clocks across distributed antenna arrays.