Synchronisation Arrangement TRIZ Cases

A wireless device synchronizes to a beacon and marks itself as forced when linked to an incompatible node.

Network node transmits downlink control information carrying synchronization data to user equipment for communication on carriers lacking synchronization signals.

Aligns cyclic prefixes and gaps within time units to resolve cross-link interference caused by differing timing relationships in dynamic TDD networks.

Network entities adjust synchronization signal block transmissions during repeater device handover operations.

Indicating synchronization signal block positions reduces detection delay and power consumption in 5G NR systems.

User equipment correlates received samples with locally generated synchronization signals to identify timing peaks across multiple hypotheses.

Coordinated back-off procedures align data frame ending times to reduce inter-channel interference while maintaining transmission throughput.

Terminal equipment adjusts uplink transmission timing using pre-configured timing advance values to synchronize signals across intermediate network nodes.

A non-terrestrial network timing mechanism calculates relative time delays for service and feeder links to synchronize uplink data transmission.

A communication device selects redundant time source ports to maintain synchronization accuracy.

Terminal device determines random access resources using distinct configuration parameters separate from the currently activated bandwidth part.

A 5G user equipment handles synchronization signal block collisions with demodulation reference signals using dynamic rate matching configurations.

Nodes compute estimated time drift and hop counts to adjust keep alive periods, preventing desynchronization in multi-hop networks.

Synchronized blinking reduces driver confusion while periodic sync cycles conserve energy from limited solar sources.

Grouping preamble sequences by stream count improves detection reliability when channel quality is poor, enabling correct decoding of multiplexed data signals.

A wireless terminal receives synchronization signal block timing information to configure rate-matching for physical downlink shared channel resources.

A user equipment sends an explicit indication to a network for time reference information.

Transmit end device sends first indication information to instruct receive end device on data delivery timing.

Adaptive fronthaul protocol distributes synchronization signals across remote radio units, eliminating expensive synchronous links.

A wireless station scans a primary social channel to synchronize with devices in a Neighbor Awareness Networking configuration.

Node sends downlink data to unsynchronized user equipment before synchronization, then uses cumulative HARQ feedback after alignment to reduce latency.

Segmentation and dimensionality changes resolve deployment complexity by linking up to 128 independent units into a scalable recording system.

Terminals share timing advance data to preserve network connectivity when base station updates are delayed or unavailable.

Base station determines target terminal timing to align uplink signals within cyclic prefix intervals.

A user equipment applies serving and non-serving beams to synchronization signal burst set symbols for simultaneous loop processing and beam sweeping.

Wireless devices ignore multiplexing restriction parameters to enable full duplex communication, reducing latency and improving spectrum usage.

User equipment detects LTE synchronization signals to establish reference timing and frequency for NR vehicle-to-everything communication.

A relay node identifies start points for R-PDCCH and R-PDSCH channels to enable efficient signal decoding.

A flexible radio access technology multiplexes mission critical communications using a secondary partition with short transmission time intervals.

Upper-layer data frames enable precise clock alignment across mesh network nodes while avoiding latency spikes from lower-level node identification processes.

Base stations transmit synchronization signals using time windows and clear channel assessments to enable user equipment discovery.

A method determines downlink transmission timing for integrated access and backhaul nodes using synchronization offsets.

A terminal selects time reference information from a network device to establish its local reference time.

User equipment reports direct current tone locations based on bandwidth part configurations to enable phase tracking reference signal setup.

Coordinating sounding and sensing parameters between neighboring networks enables accurate identification of interfering links.

A synchronization signal block structure with primary and secondary signals enables efficient system frame acquisition in new radio networks.

A TMA modem demodulates switch signals from an RBS modem to control internal switches for precise timing alignment.

Machine learning models analyze radio signal attributes to predict user equipment geolocation.

A network protective state blocks subsequent attach attempts after failed thresholds.

Unlicensed spectrum base station sends intensive synchronization signals during preemption periods to enable rapid user equipment downlink alignment.

Selective authorization filters time synchronization delivery to specific terminals, preventing network resource waste from universal broadcasting.

Cognitive master computes round-trip delay correction factors for unsynchronized wireless avionics devices.

A fine timing reference signal provides accurate synchronization for wireless data transmissions.

Embedding a phase-reversal timestamp in the guard space resolves the trade-off between high-frequency synchronization precision and messaging overhead.

Dynamic gain settings resolve wide dynamic range issues in millimeter wave packets by segmenting processing per directivity pattern.

Segmenting system information into shared and unique parts reduces message overhead while maintaining complete network coverage.

Cross correlation of punctured binary sequences identifies transmitters without retransmissions, reducing latency while maintaining data accuracy.

Separating dedicated and common demodulation pilot signals across distinct resource blocks reduces interference and enables pilot port extension.

Maintaining uplink synchronization with a target cell during active connection eliminates random access delays and reduces data transmission interruptions.