Synchronisation Arrangement TRIZ Cases

Beamforming techniques direct radio waves to extend transmission distance and reduce path loss in wireless networks.

Master device sends broadcast information containing clock and control commands to slave devices at a preset broadcast cycle.

A terminal device performs timing advance acquisition on target cells to adjust downlink timing during cell switching.

Network nodes adjust DU and MT transmission timings to align frequency-multiplexed signals.

A signal transmitting method performs channel detection on time domain units to transmit synchronization signals in unlicensed bands.

Auxiliary Bluetooth circuit switches between relay and sniffing modes to optimize data transmission.

A base station allocates semi-persistent scheduling resources to terminal devices via radio communication.

Virtual RACH occasions assign distinct preamble sequence sets to shared time-frequency resources.

Accumulating downlink signals based on synchronization intervals generates quality metrics that enable reliable cell detection in low SNR environments.

Access network devices determine guard period resources required by terminal devices and send time domain resource configuration information to the terminal device.

A hearing aid communication system synchronizes transmitter and receiver clocks to adjust preamble lengths for reliable intermittent data transfer.

A terminal apparatus detects radio link failures during handover using a running timer and MAC entity indications.

Dynamic reference antenna group selection based on real-time measurement qualities enhances wireless positioning accuracy and reliability.

A network synchronization engine copies and transmits packets directly through hardware to accelerate inter-device link aggregation.

Oversampled matched filter values determine the angle of arrival at an antenna array, enabling accurate indoor positioning when satellite visibility is limited.

Devices filter synchronization signals via group identification to maintain data reception integrity while reducing packet loss.

A coordinated timing network uses a primary active server to distribute reference time across multiple computing systems.

Timestamp packet comparison detects frequency and phase offsets between master and slave reference clocks, ensuring precise wireless signal synchronization.

A repetitive synchronization signal uses a defined repetition factor to estimate carrier frequency offset in super-high frequency wireless access systems.

Segmenting synchronization and identification data into closely spaced symbols reduces power consumption and handover latency in dense small cell networks.

All terminals transmit synchronization packets containing timing and resource allocation data to extend piconet detection range.

Time and frequency division multiplexing on a single cable reduces jitter and interference while simplifying frequency selector design.

Self-synchronizing a descrambler with dummy bytes eliminates visual artifacts by reducing synchronization delays below 16 milliseconds.

A supervisory station generates beacon frames with role indications to establish timing synchronization, resolving parameter negotiation complexity.

A first wireless device transmits control information indicating buffer status to a second device using shared channels.

Base station multiplexes multiple random access responses into single message B communications to reduce user equipment processing load.

TDMA-synchronized wireless nodes reduce aircraft cabin wiring weight while maintaining emergency communication reliability.

Segmenting the timestamp into high and low bytes within beacon frames eliminates timer rollover errors during WLAN synchronization.

Aligns super-frames by matching inter-beacon intervals, enabling uninterrupted data exchanges without parent-child hierarchies.

Chip scale atomic clocks enable deterministic scheduling that reduces power consumption and improves collision-free reliability.

Dynamic adjustment of sidelink synchronization measurement periods using consecutive listen before talk failure counts resolves reliability trade-offs.

A communication device determines measurement gap start times using timing advance values aligned with downlink subframes.

Transmitting radio nodes send synchronisation signaling across multiple allocation units to maintain timing precision.

Doppler null scanning steers signal nulls to enable passive spatial awareness without explicit positional data exchange.

Dual frequency generators in a sensor node calibrate timing during packet exchange, resolving temperature drift and improving downlink reception quality.

A User Equipment adjusts contention resolution timers to optimize PDCCH monitoring periods.

Beamforming steerable antennas select synchronising signals to resolve multi-hop wireless connection drift.

A terminal configures a primary carrier as the timing reference for device-to-device transmission to reduce computational load.

A V2X terminal selects a reference synchronization source based on priority to transmit time-frequency synchronization signals.

Segmented baseband processing manages multi-user uplink communications while maintaining legacy device compatibility.

Protocol Data Convergence Protocol estimates transmission time differences between direct and indirect data paths to synchronize delivery at user equipment.

A unified synchronous ranging channel reduces femtocell complexity by eliminating separate filter mechanisms.

Terminal devices determine a second resource based on configuration data and exclude it to prevent conflicts with reserved allocations during V2X communication.

Orthogonal long training fields in the packet preamble separate simultaneous user signals, resolving interference while maintaining high data throughput.

User equipment calculates receive time differences between low and high frequency frames to synchronize with base stations.

A wireless node calculates beamforming vectors to direct transmission energy toward specific receivers.