Synchronisation Arrangement TRIZ Cases

Indoor femto cells select a synchronization reference station from available signals to maintain accuracy without GPS hardware or resource waste.

Aligning uplink reception timing with downlink reception timing across multiple parent nodes.

User equipment signals reception and transmission parameters to enable base station coordination of sidelink multi-user multiple input multiple output streams.

Segmenting operations into diffusion periods allows non-leading radios to scan for control timing messages without losing bandwidth on other channels.

A communication device manages uplink transmissions by receiving timing advance commands and gap location information from a network node.

A user equipment detects off-duration on a shared carrier aggregation channel to trigger fine synchronization using previous parameters.

User equipment specific demodulation reference signals enable precise frequency synchronization during dynamic transmission point switching.

Mobile station interprets Timing Advance Command bits based on base station release number to resolve synchronization mismatches across LTE releases.

Applying frequency and time shifts to downlink signals in uplink subframes cancels interference caused by carrier frequency offsets.

Direct device-to-device communication uses timing offsets in discovery signals to measure distance, reducing signaling overhead and calculation complexity.

Protocol conversion between NTP and TPSN synchronizes sensor terminals, reducing packet collisions in low-power wireless networks.

A telecommunication system equalizes downlink delays across remote units to synchronize multiple-input/multiple-output signal transmission.

Segmenting correlation computation reduces processing complexity and battery drain while maintaining detection accuracy in low signal-to-noise environments.

Wireless intermediary nodes synchronize isolated vehicle domains with universal time, resolving autonomy-reliability contradictions.

An LTE-U device detects discovery signals to perform radio link monitoring in unlicensed spectra.

Reconstructs channel values to cancel interference between users, improving frequency offset estimation precision with discontinuous pilot symbols.

A location management device configures sounding reference signal resources associated with downlink reference signals for terminal devices.

Common backbone distributes synchronized clock signals to piconet coordinators for precise time division multiple access coordination.

Higher-tier entities transmit beacon signals containing spectrum usage information to enable autonomous coordination among lower-tier devices.

A power supply device recovers synchronization information from a modulated current signal transmitted over Ethernet infrastructure.

User equipment detects synchronization signal blocks and reads system information indicators to locate available data bands, reducing network overhead.

Timing control information synchronizes uplink and downlink data reception across IAB nodes using frequency or spatial division multiplexing.

Synchronization Authority time-tags ambient signal peaks to calculate local clock skew without emitting RF transmissions.

Corrects Doppler frequency offsets in satellite LTE uplinks by estimating shifts from random access preambles to maintain signal orthogonality.

A user terminal control section applies predetermined actions to monitoring fields when downlink signals overlap with other radio resources.

Configuring uplink timing groups across multiple component carriers reduces signaling overhead while maintaining precise timing alignment.

Synchronizing transmission opportunities across multiple links using virtual carrier sensing and energy detection mechanisms.

Staggered beacon offsets synchronize mesh node return to home channels during off-channel scans.

Radio terminals select time reference types from multiple options to align reception sampling windows.

Applying separate timing advance parameters to SRS and PUCCH/PUSCH signals prevents collisions during special subframe transmission windows.

Segmented S-SSB transmission with scrambling sequences resolves the trade-off between synchronization reliability and system complexity in NR V2X networks.

A wireless user device determines an initialization value for a physical broadcast channel reference signal based on synchronization signal block index.

User equipment determines timing advance index values from time of arrival measurements to maintain uplink synchronization in high-speed scenarios.

User equipment calculates a timing adjustment set to support larger cell radii without protocol changes.

A terminal determines timing advance validity by mapping the value to a specific beam and assessing its signal quality.

Terminal device receives first configuration information including threshold and resource settings for radio link monitoring.

A wireless sensor system calculates timing offsets using timestamp exchanges to synchronize data acquisition across distributed nodes.

User equipment initializes state variables and receives control messages from the base station to maintain communication window alignment.

A user equipment determines uplink transmission timing using specific timing advance configurations for each aggregated cell type.

A location management function coordinates random access channel resources to enable terminal devices to transmit preambles for positioning.

Preconfigured uplink resources enable hybrid automatic repeat request feedback in idle mode, reducing random access procedures and network resource waste.

Floating SMTC allows user equipment to detect target cell timing offsets and reconfigure measurement gaps, resolving unknown synchronization challenges.

A mobile station notifies transmission timing to serving and non-serving base stations.

Segmenting interference assessment outside synchronization signal blocks eliminates contamination from sync signals, enabling accurate handover decisions.

A multi-TRP communication system configures subbands and sets transmission timing to coordinate data exchange across distributed nodes.

Terminal devices determine synchronization signal block candidate locations using subcarrier spacing options and frequency range parameters.

Transmitter and receiver nodes apply Doppler corrections based on own node velocity to mitigate frequency shifts in mobile ad-hoc networks.

A master information block coding method places time sensitive bits at predetermined encoding positions to enable earlier decoding.

Nodes transmit probe beacons with dual offsets to detect timing conflicts and adjust schedules, preventing signal collisions in wireless mesh networks.

Source base station retransmits uncompressed data blocks when header decompression fails, preventing data loss during mobile network handover.