Synchronisation Arrangement TRIZ Cases

User equipment segments contention-free random access resources to distinguish timing advance acquisition from handover procedures.

Segmenting user equipment by service context reduces signaling overhead while ensuring deterministic communication reliability in industrial automation.

Configuring paging messages with variable maximum user equipment limits per time unit type reduces signaling overhead in LTE and 5G networks.

Autocorrelation on macro frames calculates time offsets to synchronize small cells, preventing control signal interference.

A distributed data synchronization system replicates application objects across multiple geographic data centers to serve clients from the nearest node.

Configurable gaps between synchronization signal block bursts manage reduced beam sweeping time in higher subcarrier spacing systems.

Wireless device adjusts special subframe pilot slot sizes to prevent downlink uplink overlap and guarantee half duplex operation.

Normalize reference signal arrival times across multiple beams to resolve ambiguity from varying transmission offsets and improve positioning accuracy.

A user equipment selects a reference synchronization signal block from multiplexed signals to establish a common resource block grid.

A user equipment calculates a frequency domain offset between a control resource set and a synchronization signal block to monitor downlink channels.

A network entity obtains ingress time of received packets to determine precise time information for wireless systems.

Baseband processor updates time offsets using timing indication signals to maintain synchronization in nonterrestrial networks.

A user equipment applies a calculated negative timing offset to PRACH signals for precise uplink synchronization.

Segmenting resource configuration at the symbol level resolves interference between MT and DU transmissions while managing device complexity in NR IAB systems.

Alignment tools use GPS coordinates and directional sensors to orient wireless radio devices for precise point-to-point signal connection.

Adjusting timing advance values for device-to-device signals resolves multiplexing conflicts and synchronization errors between cellular and direct links.

A common function layer performs collaboration processing on service data from multiple terminals to enable synchronized transmission over radio resources.

Dynamic cyclic shift interval calculation adapts to frequency offsets in CAZAC sequences, minimizing detection errors and false alarms.

A repetitive synchronization signal structure transmits multiple instances within a single subframe to enable carrier frequency offset detection.

Radio access nodes toggle synchronization signals to bearer data, freeing overhead messaging resources and improving user equipment throughput.

A synchronization signal block sequence number indicates the location of multiple blocks within a transmission period.

A UE estimates frequency offset by selecting quasi-co-located reference signals based on resource block counts and SNR levels.

User equipment selects target synchronization signal blocks based on signal quality and location parameters, reducing radio resource consumption during paging.

A base station allocates a receive time window based on maximum propagation round trip time to support uplink transmissions.

Network transmits timing advance data for non-serving cells in advance, allowing user equipment to perform inter-cell mobility without connection delays.

Network calculates timing advance using satellite ephemeris to compensate for large propagation delays, improving UL PRACH accuracy.

A terminal apparatus detects synchronization signals within segmented OFDM symbol groups to initiate communication with a base station.

Measures inter-node timing offsets via radio signaling to compensate for clock synchronization imperfections and improve service accuracy.

Segmenting the frequency region for moving cell synchronization signals prevents interference with legacy devices and reduces unnecessary handover delays.

A wireless device transmits sidelink synchronization signals using variable durations to adapt beam width for initial acquisition and refinement.

Applying bidirectional time adjustments aligns uplink messages with reference boundaries despite propagation delay variations.

A terminal device determines a specific offset by combining a network-configured increment with a cell-level common value to set uplink transmission timing.

A wireless device measures beam-specific reference signal received power to validate timing advance configurations for uplink transmissions.

A first UE measures time differences between sidelink positioning reference signals to dynamically switch ranging procedures.

Segments control resource sets per beam to improve PDCCH reception reliability while managing device processing complexity.

Terminal device reports timing preference to network node for accurate clock synchronization.

Aligns measurement reporting with existing uplink transmissions, reducing signaling load and battery drain while maintaining network optimization.

User equipment combines multiple control information instances across time and frequency locations to generate a unified signal for decoding.

Terminal device determines a second carrier set from available carriers and sends synchronization signals across all selected carriers.

A mobile station activates component carriers during a target eNB handover command to maintain data flow.

A null data packet announcement frame specifies a training signal repetition field to prepare communication devices for subsequent transmissions.

Core network element synchronizes compression protocols between base stations to resolve handover compatibility issues and improve data transmission efficiency.

A base station synchronization system combines GNSS receivers with Precision Timing Protocol to align time and frequency across wireless networks.

A user equipment derives timing advance for a secondary frequency point from a primary carrier to enable uplink data transmission.

Segmenting random access procedures reduces blind detection times by routing response messages through the primary cell.

Multi-stage synchronization segments timing and frequency offset estimation using distinct reference signal subsets to reduce computational complexity.

Relay user equipment transmits synchronization indications based on estimated timer deviations, resolving timing coherence issues for out-of-coverage devices.

Satellite provides uplink frequency correction to user equipment, reducing inter-carrier interference caused by Doppler effects.

Integer multiple scheduling period aligns data burst timestamps with TDM cycles, preventing resource distribution discontinuity and service overflow.

Monitoring timing advance validity enables RACH-less cell switches, eliminating search delays during L1L2-triggered mobility.