Synchronisation Arrangement TRIZ Cases

Relative time offsets between multiple logical units reduce latency below inherent constraints while maintaining synchronization reliability.

Resynchronization circuitry maintains secondary transceiver synchronization within a target time interval to prevent safety standard non-compliance.

Wireless devices transmit random-access preambles using propagation time thresholds to determine message repetitions.

Pre-configures prioritization levels and parameters to resolve latency and complexity when GNSS signals are lost.

Centralized unit acquires timing advance measurements from distributed units to calculate downlink propagation delay.

Base station pre-calculates timing values to eliminate iterative signaling delays and lower energy consumption.

User equipment determines uplink transmission conditions based on timing advance command differences across serving cells.

Sensing entities exchange background attributes to differentiate targets from noise, reducing resource consumption while improving detection accuracy.

User equipment determines spatial quasi co-location relationships across multiple cells using synchronization signal block indices to unify reception parameters.

Determining shared timing and RF chain requirements for double differential timing procedures reduces procedure complexity while enhancing positioning accuracy.

Licensed-unlicensed LTE UE relays coordinate duplexing modes and synchronization to reduce interference from non-cooperating devices in unlicensed spectrum.

Synchronization indication signals enable rapid beam pair re-alignment for continuous high-frequency data links.

Assigning discrete time slots to ad-hoc UWB devices enables structured data transmission without central coordination.

Segmenting random access channels reduces interference and resource starvation for airborne user equipment in wireless networks.

Satellites swap oscillator signals to generate sum frequencies, balancing Doppler shifts and eliminating frequency differences.

A communication device stores synchronization signal samples in multiple buffers to enable parallel processing of primary and secondary signals.

Each wireless sensor node applies latency compensation to its local clock for synchronized data acquisition despite communication delays.

A user equipment measures receive timing difference between serving and target cells to report network indications.

Asynchronous fixed stations extract phase differences from radio signals to determine mobile station position without inter-station synchronization.

User equipment detects and reports synchronization signals to enable direct device-to-device communication without base station infrastructure.

Bandwidth part segmentation reduces measurement overhead and energy consumption while maintaining reliable cell reception tracking.

A user equipment detects synchronization signal blocks exceeding its bandwidth and skips specific frequency segments to enable reception.

Periodic fine timing measurement exchanges reduce power consumption by eliminating constant beacon monitoring.

A radar controller configures a slot format to transmit reference and target radar signals between base stations.

Access points shift downlink transmission start times using time offsets derived from neighboring signals.

Network Exposure Function extends time synchronization parameters to support external application services.

Random access feedback confirms configuration application, eliminating conservative activation delays in dual connectivity systems.

Segmenting system bandwidth into subbands and repetition periods reduces memory requirements while maintaining detection accuracy.

Segmenting the scheduling offset into common timing advance and service link delay reduces UE power consumption while maintaining precise alignment.

A relay terminal shares uplink synchronization information with a remote device to streamline network access.

Master light base stations distribute grandmaster timing signals directly to remote distributed units, preventing packet loss from intermediate relay delays.

Autonomous transceiver units align interference into low-dimensional subspaces, resolving inter-cell interference while maximizing bandwidth utilization.

Time window snapshots reduce processing requirements by analyzing representative packet subsets instead of all traffic.

A Doppler compensation method adjusts radio transmission frequencies based on mobile body speed to maintain signal quality.

A single matched filter identifies correct peaks in correlation outputs, resolving synchronization accuracy versus receiver complexity trade-offs.

Partitioning preamble space by time slot resolves RA-RNTI mismatches caused by large propagation delays in extended coverage networks.

Segmenting carrier aggregation into timing advance groups reduces determination complexity while supporting high data traffic capacity.

Base stations modulate timing advance update commands using Manchester encoding to transmit fine propagation delay indications to mobile devices.

Dual-link segmentation decouples timing markers from data streams, eliminating latency and jitter in wireless physiological measurements.

Macro base station measures fiber optic delays via reference signals to align remote radio heads, resolving synchronization failures.

Network device adjusts measurement window timing to align with synchronization signal blocks, resolving satellite link propagation delays.

Segmenting the search space into virtual resource block sets reduces blind decoding complexity while maintaining discovery signal detection reliability.

Phase-rotated reference sequences enable coarse time offset estimation, reducing interference between asynchronous base stations.

Beacon signals notify neighboring devices of exclusive reservation periods, resolving bandwidth guarantee challenges without a controlling station.

Base station distributes cell to TA group mapping relationships allowing User Equipment to acquire timing advance values without random access procedures.

Terminal device triggers timing advance reporting via network configuration messages in non terrestrial networks.

Determines reference signal transmission frequency bands based on initial access or paging search spaces to enable time and frequency synchronization.

Resolves BS-to-BS interference ambiguity in large 5G networks by combining physical cell IDs with time shift data.

Network devices transmit configuration information to guide terminal devices toward preferred beams during random access procedures.