Synchronisation Arrangement TRIZ Cases

Distinct primitive polynomials and cyclic shifts define sidelink synchronization signals, resolving ambiguity in 5G reference definitions.

Autonomous timing advance updates using satellite ephemeris data resolve propagation delay challenges while reducing signaling overhead.

A mobile relay node configures frame synchronization parameters to establish access link timing with user equipment.

A terminal determines target information from non cell defining synchronization signals to optimize resource allocation.

Bidirectional self-receive back-coupling calculates propagation delay and time bias to resolve microsecond NTP errors without prior position data.

Predefined timing adjustments align symbols across cells, canceling cross-interference in dynamic TDD networks.

Synchronized transmission prevents interference between coexisting FDX and TDD systems, maintaining G.fast line reach.

Multiplexes narrowband wireless communications within channel gaps and guard spectrum bands to enable long-range low-power transmission.

Aligns uplink and downlink transmissions across overlapping basic service sets to eliminate inter-BSS STA-to-STA and AP-to-AP interference.

Network device transmits first and second synchronization signals with distinct frequency offsets within a single time unit.

Wireless acquisition systems detect false channels by tracking peak movement during frequency correction, reducing processing time and resource waste.

Gradual timing advance adjustments eliminate transmission errors caused by satellite node position updates and propagation delay changes.

Small cell discontinuous transmission schedules reference signal slots to reduce power consumption and interference while maintaining synchronization.

A wireless communication system adjusts reception channel use periods to resolve overlap schedule conflicts between adjacent devices.

Frequency division multiplexing of common control channels with SS/PBCH blocks reduces beam sweeping timings and HARQ feedback latency.

User equipment receives system information from the network to start or stop device-to-device operations.

Dynamic timing adjustment aligns OFDM symbols and DMRS in half-duplex relay systems, minimizing interference between backhaul and access links.

A user terminal determines time domain resources across multiple slots using reference timing and start symbols for uplink or downlink channels.

A user equipment selects a transmission segment duration from configured options to determine an uplink scheme.

Periodic transmission of synchronization signals across multiple OFDM symbols resolves bandwidth occupancy issues in narrowband systems.

A low-complexity hailing message enables rapid base station discovery for reduced-capability devices.

A 5G terminal detects synchronization signals and stores frequency location data to accelerate initial network access.

Adaptive resource reservation synchronizes nodes and reserves physical resources at intermediate routers to establish a direct communication tunnel.

A wireless device derives uplink transmission timing from an activated licensed secondary cell within a secondary timing advance group.

Intermediary femto nodes broadcast synchronization status to maintain alignment when direct anchor signals degrade.

Feedback mechanisms adjust rendering offsets to synchronize audio output and resolve playback desynchronization issues.

Dynamic mode switching allows stations to balance network throughput against backward compatibility, resolving scheduling conflicts in the 6 GHz band.

Neighbor awareness network frames enable direct ranging exchanges, eliminating central processing delays and reducing network traffic.

A user apparatus control unit applies ordered processing rules to determine transmission candidates by dropping or multiplexing channels.

Beamforming transmission reduces base station power consumption and system overheads by sending system information only when terminals request it.

Aligns D2D frame numbers across aggregated carriers using selective transmission configuration, reducing power consumption while maintaining V2X reliability.

Network device transmits random access response containing timing advance adjustment value for terminal synchronization.

Wireless device receives configuration parameters for uplink transmission via multiple resources and timing values.

Base station applies pre-processing factors to pilot symbols in frequency-asynchronous non-orthogonal multiple access systems.

Low mobility user equipment utilizes configured grant physical uplink shared channel resources to transmit data packets while in radio resource control idle state.

A terminal control unit determines the L1-SINR measurement period based on interference resource configuration.

A terminal adjusts synchronization signal block index correspondence to maintain beam alignment during unlicensed band operations.

Periodic time slot allocation assigns preset transmission points to mobile terminals, preventing signal collisions and maintaining positioning precision.

Terminal device receives handover commands containing synchronization data to resolve time synchronization accuracy deterioration during 5G cell handover.

A receiving node buffers traffic data outside designated time intervals to forward it during the next scheduled window.

A local clock calibration method synchronizes user equipment crystal oscillators using base station system frame timing signals.

A data-less ranging procedure calculates time of flight using pre-defined intervals and local clocks without exchanging data packets.

Terminal calculates pre-compensated timing advance using satellite ephemeris and location data to adjust uplink transmission.

Dynamic priority adjustment via offset and escalator modules balances access speed for time-sensitive traffic against delay for non-time-sensitive traffic.

A terminal detects PDCCH for RMSI using SS/PBCH blocks to receive discovery reference signals.

Base station selects communication devices using Timing Advance values and device types to pair them in a single time slot.

Hardware clock time stamping captures precise packet timing for wireless communication entities.

Nodes exchange timing packets to calculate forward and reverse delays for precise clock alignment.

A central controller coordinates multiple radio heads to perform clear channel assessment using interference cancellation techniques.