Synchronisation Arrangement TRIZ Cases

A channel scheduler negotiates overlapping access windows and forbidden periods to synchronize adjacent network devices.

Grouping unlicensed spectrum signal blocks enables directional clear channel assessment, resolving insufficient detection time intervals.

Terminal devices receive indication information of time domain resource allocation from network nodes to determine communication configurations.

A wireless control section embeds clock synchronization state information into transmitted frames to notify connected apparatuses of their timing status.

A scheduling request mechanism skips transmissions when downlink signals overlap uplink resources.

Copying timing advance values from existing groups initializes new uplink synchronization parameters, eliminating random access delays and power consumption.

Relaying user equipment establishes sidelink communication links to eliminate feeder link transmissions and reduce communication latency.

Multiple reception slots accommodate timing differences exceeding cyclic prefix limits, enabling reliable sidelink transmission beyond one thousand meters.

Rotating multi-radio transceivers scan advertisement channels to capture beacon data, resolving packet loss from short transmission windows.

Determining MsgA PUSCH resource sets and repetition numbers optimizes uplink transmission in wireless terminals.

A user equipment receives bitmap information indicating time domain positions of synchronization signal blocks for efficient processing.

Scheduler interaction triggers enhanced random access to restore uplink synchronization, reducing delay and resource waste.

Non-terrestrial network scheduling request prohibit timer prevents redundant transmissions during extended propagation delays.

A satellite beam indication method segments random access information into synchronization signal block indices and beam parameters to identify distinct beams.

Segmenting root indices for in-coverage and out-of-coverage terminals resolves synchronization conflicts when cellular networks are unavailable.

Downlink signal index identifies PRACH resources, reducing configuration bits while supporting deeper coverage and larger connection counts.

User equipment transmits random access signals on idle unlicensed carriers using early channel assessment.

Discovery signals define detection windows to reduce power consumption during sidelink synchronization for remote user equipment.

A 5G terminal synchronizes with a target cell using a second RF chain while maintaining communication with the primary cell via a first RF chain.

A multiple-antenna system uses a signal distribution network to generate specific beam patterns for unicast and single-frequency-network modes.

User equipment estimates position using reference signals and exchanged clock error components from roadside nodes.

Distinct page message and response paths reduce synchronization time and complexity during device wake-up.

Segmenting SS/PBCH blocks into indexed time-frequency candidates resolves the trade-off between increasing data traffic capacity and managing device complexity.

A sensor anticipates upcoming synchronization signals using a self-adjusting trigger technique to reduce latency.

Multi-antenna coherent combining aligns signal phases to improve carrier sensing and symbol timing accuracy despite low signal-to-noise ratios.

Distance-based rate selection maximizes throughput and minimizes packet error rates by adapting transmission speed to measured device separation.

A synchronization detection method for NR sidelink uses delay-compensated input signals and weighted correlation powers to identify sync symbols.

A preamble symbol receiving method uses three-segment time-domain structures to enable robust timing synchronization and frequency offset estimation.

A probe device manages IoT network security by isolating vulnerable nodes and synchronizing firmware updates across the communication system.

Segmenting directionality calculation into broadcast phase fields resolves the trade-off between measurement precision and device complexity.

First terminal sends synchronization signal blocks via distinct antenna panels to enable second terminal detection of relative orientation.

A signal transmission system uses time-frequency slicing to multiplex multiple services across several RF channels via orthogonal frequency division multiplexing.

A base station divides candidate synchronization signal block positions into groups to manage shared spectrum access.

A user equipment manages uplink synchronization by receiving a time alignment value and starting a timer for network coordination.

A User Equipment receives available resource information from a base station to transmit device-to-device data in an out-sync condition.

Port virtualization maps downlink reference signals to uplink beams, resolving ambiguity in UE operations while reducing latency and overhead.

Adapts guard period duration based on timing advance and device capability to minimize uplink-downlink interference.

Cell-specific SSB measurement windows eliminate blind detection across all periodicities, reducing UE power consumption and device complexity.

Segmenting cyclic prefixes into distinct lengths repurposes resources for data transmission in wireless systems.

A base station segments timing advance information across msg2 and msg4 messages to synchronize uplink transmissions in higher frequency bands.

Segmenting MTC control channels from legacy LTE resources eliminates collision risks while maintaining network integration and reliability.

A voice recognition apparatus detects user audio signals to initiate authentication procedures.