Synchronisation Arrangement TRIZ Cases

Terminal uses mode information in downlink control data to resolve transport block size ambiguity across multiple transmission points.

An amplifier determines mobile termination and radio unit timing via predefined modes or configuration data to align signal transmission.

A narrowband receiver assembles frequency-offset signal portions to reconstruct a wideband synchronization signal.

Periodic synchronization signal block repetition within discovery burst transmission windows compensates for reduced coverage at high subcarrier spacings.

A communication device dynamically reconfigures baseband processing to accommodate larger time differences between timing advance groups.

Receives synchronization signals from multiple initial sources to resolve desynchronization caused by propagation delays and equal priority levels.

Explicit carrier indicator in random access response enables cross scheduling, reducing PDCCH overhead and improving network flexibility.

A centralized controller determines synchronization parameters from communication devices to align clocks across wireless networks.

A wireless apparatus selects a Bandwidth Part and Synchronization Signal Block to transmit a Random Access preamble.

Embedded devices without RTCs acquire time from local peers to authenticate certificates, enabling NTP connection in isolated environments.

A base station monitors reservation periods on shared carrier frequencies to determine availability and reserve access for subsequent data transmission.

A position measurement system uses dedicated positioning devices to capture uplink signal data from mobile terminals for location calculation.

Segmenting synchronization signals into predetermined and opportunistic types resolves channel access variability while maintaining reliable timing alignment.

A reference device schedules measurement times for stations to receive timestamped messages for position determination.

Synchronized channel switching minimizes packet loss and maintains connectivity during interference events in high-bandwidth environments.

Direct node-to-node routing eliminates intermediary access points, reducing network delay and jitter while conserving bandwidth for high-rate applications.

A base station determines a RACH configuration that avoids conflicts with existing signals to ensure successful handovers.

A distributed radio transparent clock calculates phase offsets between transceivers and intermediate nodes using airframe-level timestamping.

Broadcasting neighboring cell periodicity in SSB blocks reduces terminal power consumption and latency during cell selection.

A user equipment extends its measurement period to align with discontinuous reception cycles.

A user equipment reuses a stored timing advance command value when measurement gaps block new synchronization signals.

Base station reference signals enable user equipment to determine location without satellite visibility, resolving accuracy versus adaptability constraints.

A user equipment applies a compensation factor to timing advance values, reducing self-interference and extending cell coverage in full duplex systems.

VHT control signaling segments resource allocation and synchronization into dedicated MAC frame fields, reducing overhead while supporting MU-MIMO.

A terminal receives configuration information for synchronization signal block bursts and detects signals based on listen-before-talk results.

A base station modem advances transmission signals and delays receiver windows to extend the service region.

A partial band processing unit embeds control information within a packet to support spatial reuse transmission.

Periodic reference signal transmission reduces interference between densely deployed small cells while maintaining connection reliability.

A user equipment transmits a sidelink synchronization signal using an identifier selected from a base station synchronized set.

Access network devices transmit SSB candidate position configuration via PBCH to reduce terminal power consumption during unlicensed spectrum scanning.

Central controller distributes discrete waveform samples and a master clock signal over wired infrastructure to synchronize local clocks at wireless access points.

Distinct subframe configurations for primary and secondary synchronization signals eliminate blind detection errors while maintaining analog filter compliance.

Wireless devices modify cell reselection parameters to trigger frequency measurements, resolving uplink timing synchronization failures.

Bundled PBCH transmissions allow low-cost terminals to achieve up to 15 dB coverage gain while reducing power consumption during initial access.

AF or NEF intermediaries assist DS-TT and NW-TT in performing Best Master Clock Algorithm without full implementation complexity.

Embedding state information in the isochronous channel eliminates periodic advertising monitoring, reducing power consumption and latency.

Reference node broadcasts timestamped messages while secondary nodes reply with their own timestamps to establish network synchronization.

Segmented SSB transmissions define unique and combined cells, resolving the contradiction between handover robustness and radio resource efficiency.

Protocol adaptation layers measure packet reception times to adjust clocks, resolving synchronization errors caused by variable delays in multi-clock systems.

A user equipment selects a synchronization source using identification-based prioritization and reference signal received power measurements.

Carrier aggregation segments channel bandwidth into base multiples and configurable additions to resolve device complexity versus adaptability trade-offs.

A terminal device configures contention-free random access resources linked to synchronization signal indices for beam maintenance.

A user equipment identifies latency and interruption parameters during layer-1/2-triggered mobility and signals these values to the network node.

Recursive integration across multiple slots distinguishes true periodic timing references from noise spikes, improving detection sensitivity and accuracy.

Segmenting beam searching into an omnidirectional phase and directional refinement reduces complexity from N to log 2(N) for faster mm-wave alignment.

Direct air link transmission bypasses ISP network latency during handovers, reducing interruption time for VoIP and video streaming services.

Binary code covers applied to primary synchronization signals resolve the trade-off between narrowband synchronization accuracy and legacy system compatibility.

A terminal applies target timing advance values from handover commands to synchronize with a new cell.

Mapping cellular component carriers to sidelink groups resolves coordination difficulty while improving resource allocation efficiency.