Synchronisation Arrangement TRIZ Cases

Configuring periodic discovery signals allows terminals to measure neighbor cells while reducing unnecessary transmissions.

A user equipment determines synchronization signal block measurement windows using time offsets from base station signaling.

A timing estimator detects data packet availability to align uplink transmission with allocated resources.

Electronic device performs synchronization with external devices using Time Synchronization Function timer information from a reference access point.

Configurable offsets between control sets and shared channels enable repeated transmissions that resolve coverage limitations for massive IoT services.

Network device transmits downlink control information to indicate selected synchronization signal block positions among multiple candidates.

A multi-hop radio device allocates hop counts to frames in uplink and downlink periods to transmit data simultaneously.

A transmission device generates area information and identification data at initial timing, then transmits payload data at a subsequent time.

A relay node schedules downlink transmissions at specific timings to prevent signal overlap.

Base station equipment orders synchronization data frames using a received scheduling sequence to ensure synchronized transmission.

Estimator and sample rate converter code synchronize wireless audio clocks, minimizing channel-to-channel latency.

Frequency sampling identifies high-correlation beams, reducing parallel processing demands while maintaining wake-up detection speed and accuracy.

A control unit determines an alignment value based on timing advance information to synchronize reception and transmission timings at a radio node.

A communication network element calculates transit delay using bidirectional timing data packets to schedule transmissions accurately.

A user equipment applies a priority rule to select between uplink transmission and synchronization signal block reception in full-duplex symbols.

Segmenting the payload into fixed fields minimizes overhead while maintaining configuration precision.

Segmenting slot index bits between PSBCH and DM-RS reduces payload size while maintaining complete information for high-frequency wireless communication.

Single anchor response reduces energy consumption and processing complexity in UWB networks by minimizing message exchanges.

Dynamic SSB resource allocation reduces base station power consumption during low-traffic periods while maintaining essential coverage.

User equipment measures timing differences between transmission points using reference signals to align receive timings and reduce inter-symbol interference.

Network controller predicts clock drift and sends compensation commands to wireless sensor devices for precise timing alignment.

User equipment reports maximum control channel element capacity to configure physical downlink control channel monitoring.

A user equipment estimates system timing and carrier frequency by determining offsets for multiple cells to process received signals.

Transition gaps in cellular networks reduce network entry delays by enabling time synchronization and bandwidth allocation for dense user equipment.

Dynamic timing advance configuration maintains service continuity during satellite handovers by resolving uplink synchronization issues.

A mobile station estimates uplink transmission timing by tracking downlink preamble signals across consecutive frames.

A wireless communication system pre-defines mappings between downlink and uplink component carriers to manage carrier identifiers during initial access.

A dual-mode device dynamically recalculates beacon arrival times to schedule alternating access point and station windows.

Pre-defined synchronization sequences extend random access channel coverage in wireless networks.

Dynamic offset configuration allows terminals to utilize multiple synchronization signal blocks without additional information overhead.

An expiration timer allows flexible transmission timing within the duration, resolving the contradiction between power consumption and adaptability.

Terminals receive quality metrics from specific sources to reduce synchronization delay and improve sidelink operation efficiency.

A User Equipment manages contention-free random access resources by discarding them after maximum preamble transmissions.

Segmenting the synchronization signal into parts with distinct cyclic prefix lengths mitigates phase noise in terahertz bands while reducing time overhead.

Segmenting timing advance groups allows user equipment to switch remote radio headers using pre-configured offsets, eliminating continuous measurement overhead.

A network node provides synchronization status and location data to user equipment for establishing vehicle-to-vehicle sidelinks.

User equipment detects base stations using phase pattern vectors and correlation values to establish connections.

Base station calculates and multiplexes distinct guard intervals for frequency division multiplexed user equipment based on individual channel conditions.

A parent node coordinates mesh network PAN switching using layer 2 beacons to share backhaul status and maintain timing synchronization.

A method configures initial bandwidth parts using synchronization signal block center frequencies within unlicensed bands.

A network device selects a target terminal as a grand master clock node for time-sensitive networking domains.

Two-tier cell group identifiers configure independent timing advance groups for inter-eNB carrier aggregation serving cells.

A terminal device maps synchronization signal blocks to random access channel occasions based on frequency domain positions.

Superimposes intermittent machine-to-machine data onto enhanced mobile broadband subcarriers to resolve transmission collisions and reduce latency.

User equipment measures time domain correlation via configured channel state information reference signals for tracking.

A dynamic silent period management system schedules channel-independent intervals to maintain traffic flow.

A multi-link device broadcasts BSS parameter updates through an active link, resolving power consumption trade-offs during channel switching.

A user equipment determines a synchronization signal block index using extended discovery reference signal windows.