Synchronisation Arrangement TRIZ Cases

Segmenting wideband carriers into distinct narrowbands eliminates inter-cell interference and preserves IoT battery life.

A wireless node transmits a single information block containing multiple timing advances to enable base station parameter configuration.

Terminal devices determine synchronization signal block positions using network-provided offset data, preventing resource overlap and reducing interference.

A base station adjusts downlink transmission timing based on communication distance to align reception signals at terminal devices.

A virtual sensor network synchronizes heterogeneous vehicle data to eliminate costly physical driving tests during algorithm verification.

Dynamic timing advance adjustment allows a relay node to receive signals simultaneously, resolving propagation delay conflicts.

Switching to the initial bandwidth part allows reacquiring ephemeris data before timer expiration, preventing uplink desynchronization.

An auto-adaptive digital clock system dynamically adjusts clock frequency to format data packets with minimal fill data.

Grouping stations into polling and non-polling sets bypasses unnecessary polling phases, reducing signaling overhead while maintaining synchronization accuracy.

A method computes RMS delay spread using Secondary Synchronization Signals for accurate channel estimation.

Segments measurement gaps between master and secondary nodes to resolve system complexity while maintaining measurement precision.

Element-wise multiplication of cyclically shifted base sequences generates synchronization signal sequences.

A frequency compensation method determines Doppler shift values using weighted timing advance change rates to improve synchronization precision.

Subscriber station extends evaluation period for channel quality monitoring in restricted sub-frames to maintain accuracy during DRX cycles.

Autonomous resource allocation based on preconfigured TDD uplink and downlink configurations reduces resource collision probability outside network coverage.

User equipment transmits capability information for L1/L2 measurements of target reference signals from non-serving cells.

Timestamp-based synchronization compensates for propagation delays in large networks, preventing connectivity loss when nodes fail or transmit slowly.

A user equipment control unit stops synchronization signal detection based on system information parameters.

A method adjusts time synchronization update periodicity based on received frequency traceability cues.

Central unit coordinates distributed units via standardized interfaces to execute bearer conversion and security key updates.

Configures energy detection modes for synchronization signal blocks to support flexible listen-before-talk operations in unlicensed spectrum.

A user terminal groups component carriers by phase noise to request a single PTRS for cooperative compensation.

An implantable system resolves clock drift by calculating a synchronized time offset from timestamps, enabling accurate multi-device data acquisition.

Adaptive measurement gaps account for satellite propagation delays, enabling accurate synchronization and efficient handovers in 5G non-terrestrial networks.

Network devices configure radio resource management measurements based on terminal mobile status and channel quality data.

A relay radio device autonomously collects and stores meter reading data from multiple slave units based on set time schedules.

Relay stations execute ARQ re-transmissions during idle periods, resolving synchronization latency while improving data reliability in wireless networks.

A user equipment applies time and frequency pre-compensation during a routing point switch to maintain uplink continuity.

Base station allocates synchronization signal regions across determined slots to enable neighbor cell search despite high serving cell interference.

Aggregating timing advance data from multiple serving cells improves location accuracy without increasing device power consumption.

Downlink Advanced Receiver Performance technology enables remote stations to demodulate desired signals amidst co-channel interference.

Broadcasting synchronization signal block resource locations eliminates blind detection complexity and reduces access delay.

A digital multichannel interface reformats wideband I/Q data streams between base station and repeater units.

A wireless transceiver determines secondary cell synchronization status before enabling sounding reference signal transmission on uplink component carriers.

Wireless device measures signal arrival time difference between primary and secondary cells to enable conditional carrier aggregation activation.

Network node pre-configures uplink positioning reference signal parameters to reduce configuration latency and power consumption during cell transitions.

A synchronization station adjusts its time using a calculated timing advance value derived from reference signals.

Network devices process synchronization signal block data at lower protocol layers to enable faster transmission of additional information.

A common time master broadcasts synchronization messages across different wireless networks, eliminating individual masters and reducing system complexity.

A multi-channel MAC protocol assigns a home channel to each node and broadcasts beacon frames containing temporary operating channel information.

A partially synchronized multilateration system uses co-located location management units to calculate user equipment positions via tightly synchronized reference signals.

Allocating synchronization signals on additional bands with flexible numerologies reduces signal overhead while improving acquisition quality in NR systems.

A WirelessHART field device uses time-sliced communication to toggle the Bluetooth interface on demand.

Multiple receive chains simultaneously detect signals from static nodes, enabling accurate trilateration without node synchronization.

Solver module determines network subgraphs from input graphs to maintain connectivity and satisfy flows despite node movement.

Direct peer-to-peer message exchanges eliminate cluster formation delays, enabling rapid time synchronization with minimal effort.

Multi-link device adjusts transmission timing to align subsequent frames across wireless links.

Assigning dedicated OFDM symbols for P-SCH, S-SCH, and P-BCH eliminates conflicts with DMRS, CSI-RS, and TRS signals.

Relay nodes transmit discovery signals at different time domain positions based on configuration data, resolving half-duplex constraints in multi-hop networks.