Synchronisation Arrangement TRIZ Cases

A radio base station control unit performs channel access using wider directivity to transmit multiple synchronization signal blocks.

User equipment switches bandwidth parts to locate available random access resources, reducing latency when current parts lack resources.

A network node configures a longer timer interval for stationary user equipment to reduce signaling frequency.

Merging physical cells into an overlaid virtual cell reduces system complexity and handover frequency while maintaining spectral efficiency in unlicensed bands.

A base station transmits Physical Broadcast Channel information carrying access indication signals to manage network entry.

Detecting uplink signals allows small cells to acquire accurate timing without dense grand master deployments required by Precision Time Protocol.

Isochronous latency control mechanism adjusts audio data rates using timestamps to maintain constant end-to-end delay across varying network paths.

A secure element processes beacon messages to determine real-time location information, resolving indoor positioning security and accuracy limitations.

Access node transmits NB-IoT uplink-downlink configuration using a Zadoff-Chu sequence mapped to subframes within an LTE guard band.

Segmenting timing advance into common and terminal-specific values resolves uplink stability versus system complexity trade-offs in satellite communications.

A timing advance design adjusts transmission gaps to synchronize user equipment uplink signals.

A mobile transceiver adjusts its counter via a base station reference to eliminate audio artifacts.

Dual SIM dual standby user equipment transmits uplink dedicated physical control channels during radio frequency resume events to maintain network synchronization.

Radio base station estimates user equipment distance to set dynamic time advance values for uplink transmission timing.

A user equipment detects frequency changes exceeding a tracking loop pull-in range by decoding Physical Broadcast Channel signals.

Segmenting uplink subframes allows device-to-device transmission while preventing interference with sounding reference signals.

A wireless communication device sets a preliminary time reference for a secondary cell using primary cell timing to perform channel state measurements.

Wireless device terminates first signal transmission to send a second preempting signal containing termination information.

First radio access network device indicates resource occupation status to terminal devices for dynamic spectrum allocation.

A BSF network element maps 5G session binding data to 4G formats and synchronizes the relationship via a dedicated interface.

Terminals derive timing offsets from base station reference time to correct clock errors and ensure precise synchronization.

Variable slot durations align the overhead message cycle with control channel frames, resolving misalignment issues caused by varying data rates.

A millimeter wave base station determines timing and propagation parameters to establish a wireless backhaul link with a neighbor.

User equipment tracks timing errors using narrowband synchronization signals to estimate drift and correct raster offset.

A femtocell detects frequency offsets using a counting module to determine when recalibration is required.

Wireless devices detect synchronization signals from wide-band cells to receive downlink services on narrower support bandwidths.

Adjusting PTP timestamps compensates for differing propagation delays across redundant network paths, ensuring accurate clock synchronization.

User equipment derives private cell control resources from public synchronization messages to enable secure network access.

Segmented FFT processing extracts resource blocks from OFDM signals by removing cyclic prefixes and concatenating time domain sequences.

A user equipment omits uplink timing synchronization during handover when source and target cell timings match.

Central controller coordinates phase adjustments across base stations using measurement reference signals, eliminating expensive GPS antenna installations.

Base station segments synchronization signals into blocks to enable terminal detection of subcarrier spacing.

Access WTRUs select available random access channel resources from IAB nodes using overlap indications to enable reliable PRACH transmission.

Segmenting beam management into broad Tier-1 sectors and precise Tier-2 beams reduces acquisition latency while maintaining reliable connections.

Correlation techniques filter noise from bit streams to determine round trip times, resolving accuracy issues in noisy environments.

A wireless communication module aligns PPDU ends across multiple links using MAC layer timestamp calculations.

Relocating beamforming computations to ground access nodes reduces satellite complexity and power consumption.