Synchronisation Arrangement TRIZ Cases

Synchronizing access point beacon frames reduces packet collisions and improves system throughput.

Grouping cells by timing advance values reduces signaling overhead while aligning subframe boundaries despite non-ideal backhaul latency.

User equipment monitors PSBCH signals by dropping data subframes to identify new synchronization references.

A random access method configures masks to associate downlink signals with specific occasions for precise resource selection.

A download server manages bandwidth allocation by tracking connected devices at a common access point and delaying non-essential downloads when device counts exceed thresholds.

A timing manager service instantiates on a distributed unit cluster to synchronize network functions for automated deployment.

Network device configures distinct random access resources for terminal devices with and without timing advance pre-compensation capabilities.

A PTP time control unit corrects NTP time information using a 1PPS signal reference to adjust processing delays.

Circularly mapped synchronization signal blocks enable user equipment to perform radio link monitoring using subcarrier spacing indices.

Terminal disables bandwidth part inactivity timer during secondary cell deactivation, resolving indefinite timer operation and ensuring reliable BWP management.

Segmenting synchronization signal blocks into multiple transmissions with orthogonal codes reduces search latency and power consumption in new radio networks.

Second base station allocates radio resources via wireless backhaul to enable multi-cell coordinated downlink transmission.

A subscriber transmits location updates on a dedicated data revert channel using pre-allocated time windows.

Adjust timing offsets between mobile stations to prevent inter-symbol interference caused by propagation time differences in diverse satellite links.

Reception user equipment transmits feedback signals based on multiple reference signals to calculate distance between devices.

A V2X communication device uses separate transceivers to receive service advertisements and data across distinct control and service channels.

Client device adjusts radio measurements based on switched operation duration to maintain accurate network reporting.

A wireless entry system interlocks transmit and receive roles to create a time-bound protocol that limits relay-attack range.

A WLAN resource allocation method determines restricted access bandwidth intervals and sets restricted access windows in the time domain.

Assigning tier counter values to user equipment expands multi-hop coverage while managing complexity through hierarchical segmentation.

A user equipment adjusts retransmission delays based on network congestion to reduce collision probability.

A parent node selection method evaluates candidate ranks and subnode counts to distribute network load across mesh nodes.

A relay node determines slot boundaries and timing advances to align downlink transmissions with child nodes.

Segmenting the synchronization signal period into intervals with distinct receive beam configurations reduces acquisition latency and conserves battery power.

Master device timing prevents clock drift and overlapping transmission events in cross-body wireless audio scenarios, ensuring reliable data link quality.

A mobile station notifies a base station of its supported Timing Adjustment Group count via capability messages.

Jointly encoding PBCH payloads with synchronization signal indices reduces latency and energy consumption by eliminating blind decoding requirements.

A relay node maintains its Uu interface while a timer runs to optimize recovery of the Un connection.

Terminal device defines specific non-monitoring intervals for control channel candidates, resolving receive-transmit conflicts in IoT NTN systems.

An intermediary node computes time offsets from local frame measurements to correct desynchronization and improve position estimation accuracy.

User equipment camps on a virtual cell encompassing multiple physical cells to maintain idle mode connectivity.

A Tracking Reference Signal transmitted on demand by a gNB to support user equipment synchronization.

Segmented secondary synchronization signals allow single-signal detection, reducing processing complexity and measurement interruption time.

A communication device adjusts transmission prohibition duration based on clock synchronization error to ensure accurate channel switching.

Wireless time and frequency lock loop system synchronizes slave devices to master references using digital closed-loop control.

Determining specific transmission time points for positioning reference signals improves inter-terminal positioning accuracy while managing device complexity.

A base station evaluates inter-system handover necessity using beam measurement results to prevent unnecessary transitions.

User equipment selects random access procedures using channel metric thresholds, resolving latency and reliability trade-offs in wireless networks.

First user equipment synchronizes with a second device via a distinct carrier frequency using network configuration signals.

A communication apparatus requests separate network slices for predetermined processing and active service execution to reduce startup delays.

A detection device tests synchronization signal sequence matches to identify jamming transmitters in CDMA networks.

A Phase Lock Loop reconfigures its output frequency based on estimated offsets to stabilize the signal carrier.