Synchronisation Arrangement TRIZ Cases

A wireless repeater receives consolidated control information from a primary base station to manage multiple connections.

Dynamic measurement window adjustments compensate for propagation delay drift, ensuring reliable neighboring cell signal capture.

Expanding synchronization signal resource elements improves cell detection performance in low-SINR scenarios without increasing device complexity.

Electronic device detects synchronization signals by estimating and eliminating strongest adjacent base station interference.

Terminal device determines transmission gaps in uplink shared channel resources to perform synchronization during data transmission.

A wireless clock synchronization system uses phase error detection to adjust signal timing.

Terminal detects beam reciprocity to adjust random access channel configuration for diverse service numerologies.

A radio unit applies a delay period to reference signals before transmission.

A UE determines uplink transmission timing using Timing Advance Commands and subcarrier spacing parameters.

L1/L2 triggered mobility uses MAC control elements to execute cell switching, minimizing latency during high-speed transitions.

A paging early indication signal reduces user equipment power consumption by filtering unnecessary monitoring.

Segmenting spanning trees into multiple directed acyclic graphs allows network devices to reroute clock synchronization paths during link failures.

Explicit positioning data eliminates synchronization block searches, reducing core set acquisition latency.

A synchronizing assisting device provides timing adjustment values to mobile stations for rapid target cell synchronization.

Classifying system information by risk level allows radio devices to assess validity locally, reducing access latency and network resource consumption.

Receiver calculates line-of-sight transmission time delay to advance random access subframe transmission.

Nodes exchange signals to generate synchronized periodic waves, eliminating centralized control and precise position knowledge requirements.

Autonomous synchronization modes with drift compensation preserve message integrity when external sources disappear.

A control device decides flow generation intervals against permissible delay times to delete non-transmitted data.

Interfering base stations provide synchronization signals for a base station of interest, eliminating GPS receiver costs in indoor environments.

Configures time position information for Control Resource Sets, allowing User Equipment to select start positions and reducing network signaling overhead.

A wireless communication method determines downlink control reception configuration based on offset value ranges indicated in system information.

Beacon feedback synchronizes source node oscillators to prevent signal cancellation and enable constructive combining at the destination.

Segmented STC and SMTC windows resolve half-duplex constraints during IAB node setup.

Processing content generates control signals for everyday devices, eliminating specialized equipment requirements.

Periodic transmission of synchronization signals in unlicensed carrier subframes maintains device alignment despite non-continuous spectrum access.

A sidelink synchronization signal block conveys resource block set information via physical broadcast channel bits to identify available transmission resources.

A Wireless Time Sensitive Network frame structure uses reduced preambles and compensation indication information to enable efficient data transmission.

Synchronized reference time points and calculated timing offsets prevent overlapping advertisement packets, improving delivery efficiency in Bluetooth networks.

Extended cyclic prefix allows terminal devices in RRC idle state to transmit uplink data directly, reducing signaling overhead and power consumption.

Dual connectivity segments sidelink resource control between primary and V2X eNBs to resolve interference from multi-operator spectrum conflicts.

Satellite transmits periodic scheduling offset updates to user equipment for non-terrestrial network timing control.

Identifier packets embed capability bits to signal enhanced protocol support, preventing interference when legacy devices cannot process additional data.

Removing the physical downlink control channel from LTE resource allocation improves data utilization and coverage for machine type communication applications.

A location management function distributes effective timing error indications to user equipment and base stations.

Multichassis link aggregation peers process network data units locally with a shared media access control address, reducing peer link bandwidth consumption.

Communication stations exchange time information to calculate transfer times and phase differences for synchronization.

A sensor synchronization system generates phase-offset pulses from a local clock to trigger multiple sensors simultaneously.

L1/L2 signaling manages timing advance values to reduce mobility latency and overhead during serving cell changes.

Wireless devices report synchronization accuracy to a network controller, resolving interference from multi-hop 5G NR deployments.

Ad-hoc base station network unifies time references across underground coal mine environments using hybrid optical fiber and satellite synchronization.

An electronic clock transmits a service discovery end notification to a paired smartphone after completing operating system communication.

Separates measurement from data reception using distinct numerologies to reduce processing complexity while maintaining accuracy.

A wireless node adjusts ingress times for Precision Time Protocol messages using residence time corrections to improve synchronization accuracy.

Synchronization circuitry associates receive and transmit count values to provide accurate timing for RF message transmission.

First user equipment acquires scheduling assignment signals to determine time adjustment amounts for data reception.

Root access points derive timing from existing networks and propagate it to neighbors, eliminating costly GPS hardware requirements.