Synchronisation Arrangement TRIZ Cases

Gateway nodes negotiate a common network identifier to establish distinct source routing trees for mesh networks.

Terminals adjust synchronization signal transmission rates based on observed network conditions to reduce power consumption while maintaining accuracy.

Terminals reverse timing error signs to adjust superframe start times, expanding communication range without auxiliary GPS devices.

Configuring network nodes with reduced bandwidth synchronization structures enables deployment in smaller spectrum allocations.

Adjusting symbol transmit timing via NTA offset aligns reception windows, preventing communication failures from time domain misplacement.

Segmenting timing advance control at the TRP level resolves interference caused by unified group granularity in multi-TRP communication systems.

Applies pre-computed timing error corrections to positioning reference unit data, resolving signal drift in limited coverage environments.

Spectral replication divides signals into multiple replicas transmitted at different frequencies.

Grouped paging indication information targets specific user equipment sets via dedicated time-domain resources.

A D2D transmission scheduling mechanism prioritizes synchronization signals over channels in specific subframes.

Base station timing adjustment commands enable relay nodes to synchronize downlink transmissions, resolving LTE-A synchronization bottlenecks.

Flexible transmission ending position determination via indication information resolves Listen Before Talk granularity mismatch.

Synchronizes wireless station clocks via grandmaster parameters to compute accurate range measurements despite clock drift in indoor environments.

A user equipment receives bandwidth part configuration to perform synchronization signal block measurements during active states.

A correlator detects known signal sequences to perform physical carrier sensing without channel decoding.

A configuration apparatus concurrently trains transmitter and receiver parameters using probability vectors to determine updated timing synchronization settings.

A network entity provides common propagation delay compensation values to a user equipment group.

Access nodes signal fixed subframe points to relay nodes for accurate PDSCH data reception.

A peer-to-peer wireless communication device performs a ranging exchange using fine timing measurement to estimate distances between devices.

Radios maintain priority values to select a new timing leader, preventing synchronization loss during power source exhaustion.

Aligning sub-channel boundaries via a common reference point resolves interference and orthogonality issues in V2X sidelink communications.

A user equipment manages extended cyclic prefix durations based on capability and uplink grants.

Segmented detection reduces network entry time from minutes to seconds by resolving timing error trade-offs.

Network-side devices configure base measurement gap templates and offset values to support flexible satellite cell measurements.

Network entities trigger load reports via configured events rather than periodic schedules, reducing energy consumption and improving communication efficiency.

User equipment adjusts uplink transmission timing based on received commands to manage signal overlaps.

Determining configured grant resource locations using frame number information during bandwidth part reactivation.

Segmenting satellite clocks into a resilient mesh network compensates for individual unit failures and attacks.

Compensates responder timestamps for clock frequency offset to eliminate measurement inaccuracies from device clock differences.

A RACH configuration table indexes available random access resources to streamline initial access procedures.

Encapsulates ranging measurement information within encrypted data frames, resolving the throughput penalty of dedicated FTM or NDP protocols.

A satellite spectrum routing network time multiplexes spot beams to manage feeder links.

A UE maps SSB indexes to PUSCH resources using Configured Grant settings.

Periodic discovery and measurement timing configurations manage beamformed links to compensate for path loss at higher frequencies.

Connectionless three-way handshakes synchronize auxiliary activities, resolving reliability and protocol complexity trade-offs.

Simultaneous packet transmission eliminates inter-device relay latency.

Network synchronization signals enable time and frequency alignment between user devices in different cells without increasing complexity.

Dynamically sized buffering and CIG parameters resolve audio lacking from data loss while maintaining transmission synchronization.

An IAB node determines SSB and RMSI periodicity using predetermined values or signaling messages for backhaul links.

Terminal device determines full-capability component carriers by associating measurement objects with reporting configurations.

A base station sets distinct subcarrier spacings for synchronization signals and physical broadcast channels to optimize mobile telecommunications performance.

Higher layer controls radio link monitoring using beam detection results to resolve measurement precision issues in 5G beam transmission systems.

A communication apparatus selects a time synchronization source by classifying detected devices into fixed or movable types to stabilize network timing.

A satellite signal relay system converts analog signals to digital frames for optical transmission to a central unit.

A base station device controls synchronization channel signal generation to manage maintenance operations.

Extended cyclic prefix durations absorb propagation delays to achieve uplink synchronization, eliminating timing advance reference signaling overhead.

Discreet time shifts applied to positioning reference signals hide base station clock parameters from user equipment.

A receiver system performs synchronization timing and frequency offset estimation using a single training sequence with auto-correlation and matched filtering.

Dynamic selection of DMRS sequence initialization via modulo-2 addition reduces signaling overhead while enhancing orthogonality in CoMP scenarios.