Synchronisation Arrangement TRIZ Cases

Segmenting backoff parameters by service type reduces user plane latency while maintaining congestion control for diverse wireless applications.

A terminal adjusts uplink transmission timing using interference-specific timing advance information to align signals.

Delay compensation merge units synchronize signals across distributed antenna networks, resolving timing alignment issues caused by varying transmission paths.

Dynamic listening windows reduce power consumption by avoiding cumulative timing errors in mesh networks.

Master device distributes synchronization parameters enabling direct slave-to-slave communication in Bluetooth Low Energy networks.

Joint LTE and GNSS timing references discipline local oscillators, resolving out-of-coverage frequency accuracy deterioration while maintaining device autonomy.

Infrastructure equipment estimates timing advance before a reference time to synchronize uplink transmissions.

Road-side units transmit positioning signaling containing timing offset values to mobile terminals.

Customer premises equipment adjusts its clock using corrected timestamps from DMT signals to achieve precise synchronization with central office timing.

Network signals time offsets to user equipment, resolving detection complexity in asynchronous carrier aggregation.

Base stations identify downlink transmission beams via random access preamble feedback, reducing signaling overhead and delay in 5G networks.

A wireless access method generates random access preambles using pre-configured physical random access channel parameters embedded in broadcast signals.

Processor switches to shorter detection intervals when low communication delay events trigger, reducing synchronization latency.

A mobile device calculates differential frequency offsets to precompensate Doppler shifts during cell transitions.

Calibrating built-in timing using exchanged processing times resolves clock drift for accurate indoor positioning.

A wireless device selects a synchronization reference source using clock accuracy indicators to align its internal clock with the chosen external source.

Parallel synchronizers with a selection module optimize power consumption and latency by dynamically switching active stages.

A communication device configures primary and secondary cells to transmit random access preambles on activated secondary cells.

A channel estimation method generates an equivalent pilot sequence by applying historical frequency offset data to improve correlation accuracy.

A synchronization system correlates sensor data streams to align time steps across multiple devices.

An access point estimates terminal delay times to enable space division multiple access.

A terminal device receives network indication information to determine quasi co-location relationships between synchronization signal blocks.

Frequency indexing maps discovery message payload to subcarrier selection, reducing signaling overhead and improving decoding performance.

A user equipment transmits a request signal to a radio base station for receiving an RRC message containing a reference system frame number and associated reference time.

A user terminal receives synchronization signals and downlink control channels to determine monitoring occasions for shared channel rate matching.

A synchronization reference source selection module aligns subframe boundaries across multiple carriers for 5G V2X User Equipment.

A PDSCH rate matching mechanism associates physical cell identifiers with control resource set pool indices to manage distinct synchronization signal block patterns.

Flexible signal transmission methods enable channel access opportunities in 5G New Radio systems operating above 52.6 GHz.

A wireless terminal receives system information to determine subcarrier spacing for random access preamble transmission.

A UE establishes radio bearers via pre-handover instructions from a source eNB to prepare target cell resources.

Segmented fractional guard periods mitigate D2D interference while preserving communication efficiency.

A bursted signal transmission method utilizes periodic radar blanking intervals to enable asynchronous data exchange between mobile terminals.

A radio base station adjusts transmission timing using beacon signals to prevent frame overlap between adjacent cells.

A relay discontinues periodic system message broadcasts to prevent new wireless devices from acquiring connectivity.

Circularly-shifted CAZAC sequences eliminate timing synchronization requirements, reducing channel sounding latency while maintaining measurement precision.

A hybrid synchronization apparatus coordinates master and slave anchors to autonomously align clock information across a real-time locating system.

A wireless device selects neighbor awareness network clusters by comparing synchronization message hop counts and master rank values.

A terminal device determines a transmission time set for Synchronization Signal Blocks based on subcarrier spacing and window length.

Advanced buffering mechanisms manage computational latency within general purpose processor signal processing workflows.

A terminal determines random access occasion resource information for contention-free random access using configured resources.

A time synchronization method searches for preset code patterns at the SERDES parallel interface to determine precise timestamps.

Chirp spread spectrum signals align wireless clocks via cyclic shifts, resolving GPS unavailability while reducing receiver complexity.

A radio module maps URIs to I/O ports for remote device monitoring.

Dynamic time slot allocation using CACH synchronization allows terminals to lock idle slots, fully utilizing the 12.5KHz frequency width.

Dynamic on-demand transmission of multicast control channel messages reduces latency by eliminating continuous physical downlink control channel monitoring.

Demodulation reference signal carries timing information to determine time domain location.

A self-contained time division duplex subframe structure enables simultaneous downlink and uplink data transmission within a single frame.

A user equipment method adjusts timing advance values based on satellite location to mitigate uplink reception errors.

A frame control apparatus generates a reference clock signal to synchronize communication frames between power transmitter and receiver units.