Synchronisation Arrangement TRIZ Cases

A base station calculates frequency offsets via air interface interaction to perform synchronization without synchronous Ethernet infrastructure.

Allocates distinct discovery and communication subframes to minimize interference with cellular networks while maintaining synchronization reliability.

Updates transmission configuration indicator states via downlink control information to reduce signaling overhead and latency in wireless networks.

A vehicle-to-everything terminal selects an optimal synchronization signal from available sources to maintain precise time-domain alignment.

Electronic article surveillance devices synchronize operations using local AC power line zero crossing signals when remote wireless manager connectivity is lost.

A communications device receives a paging message indicating downlink small data transmission while in an inactive state.

Assigns transmission timing to radio terminals based on movement speed, reducing reference signal overhead while maintaining channel state information accuracy.

Target beam measurement replaces omnidirectional LBT, resolving NR adaptability issues and improving channel idle detection accuracy.

User equipment determines time synchronization references for sidelink positioning reference signals based on received priority information.

Calculating receiving power distribution values across antennas and channels to generate a synchronization signal for stable data reception.

A GNSS receiver adjusts its local time base using network PTP packets to maintain synchronization.

A PSYNC process combines RSSI scans with detection operations to identify carrier frequencies in multimode terminals.

Base station segments reference signals to report angle of departure data based on reception strength.

Base stations trigger random access to determine timing advance groups, eliminating RRC reconfiguration signaling overhead.

A user equipment determines a unified measurement gap configuration for bandwidth part switching.

Back-off scheduling reduces packet overhead and power consumption while maintaining reliable time synchronization.

An eNodeB computes timing advance and power level parameters during initial access to determine 5G leg addition feasibility.

UEs autonomously select synchronization sources based on RSRP thresholds to reduce signaling overhead and power consumption.

A synchronization circuit generates sync enable signals from clock edges to align flip-flop dividers for MIMO wireless devices.

Independent synchronization timers manage uplink resynchronization states across multiple cell groups in carrier aggregation systems.

Radiobeacon stations synchronize beacon signals via satellite navigation data, enabling accurate indoor positioning without complex infrastructure installation.

A terminal device converts reported time-domain granularity to match network device requirements, ensuring consistent parameter alignment.

User equipment receives quasi co-location signals to perform radio resource measurements across synchronized cells.

A user terminal receives common information for multiple space resources to control reference signal measurements efficiently.

A conditional mobility procedure triggers handovers based on predefined radio conditions using a dedicated timer mechanism.

A single hardware receiver alternates between IEEE 802.15.4 and Bluetooth Low Energy synchronization detection using time multiplexing scheduling.

A WirelessHART gateway mediates device access using authentication protocols to establish secure mesh connectivity.

A base station notifies terminals of synchronization signal transmission timing via licensed bands to reduce detection latency.

Receiver control circuit triggers a synchronization header timeout upon detecting the end of a guard preamble in frequency-shift keying signals.

TSF timestamping detects ambient power device positions using synchronized network relays, reducing airtime and frame processing complexity.

A sensing system recalculates time stamps using statistical processing of packet intervals to synchronize sensor data with a reference clock.

Nodes evaluate reception quality and clock attributes to automatically select synchronization sources, eliminating manual provisioning complexity.

Enables Layer 1 or Layer 2 signaling to select candidate cells, reducing handover latency by bypassing Layer 3 averaging.

A mobile station manages component carrier states to maintain synchronized uplink transmission timing across multiple carriers.

Segmenting RACH resources by CSI-RS beams reduces signaling overhead while maintaining handover reliability.

A synchronization channel method transmits information across multiple TDMA frames to boost signal reach.

An OFDM broadcast system transmits timing reference signals and data using comb structures.

Index mapping reduces transmission bit overheads for synchronization signal block quantities in 5G networks.

Analyzing synchronization preamble correlation peaks detects codec inversion, preventing data transmission errors in emergency communication systems.

Network assistance information guides user equipment polling signals toward specific high frequency small cells, reducing power consumption and latency.

Parallel multi-panel synchronization signal block transmission shortens beam sweeping periods, reducing user equipment power consumption.

Second node sends indication information to first node confirming downlink beam consistency with previous uplink configuration.

A dual random access channel configuration segments synchronization accuracy to support low-power wireless devices.

A predetermined positioning unit monitors the primary reference signal to assume control of the network timebase when the main source fails.

Pre-computed timing advance values allow user equipment to synchronize immediately during handover, reducing execution time and service interruptions.

Distinct synchronization signals enable devices to transmit only when required, conserving power and radio resources.

Determines synchronization signal block positions using reference numerologies to extend coverage at higher carrier frequencies.

Wireless positioning device calculates time differences of arrival at asynchronous anchor nodes to determine location.

Dynamic layer mapping segments piggybacked DCI payloads across multiple layers to reduce UE power consumption and improve transmission reliability.

A wireless receiver mechanism calculates drift windows from signal quality thresholds to adjust carrier frequency estimates dynamically.