Synchronisation Arrangement TRIZ Cases

Transport retry timer logic pauses during hold mode to prevent exponential backoff delays and minimize datalink message propagation time.

Transmitting device adjusts synchronization signal resources within a time frequency grid to resolve the contradiction between reliability and overhead.

Remote radio head integrates user equipment terminal to measure fronthaul latency and dynamically correct phase alignment errors.

A mobile terminal manages its synchronization state to conserve energy during inactive periods.

A re-synchronization signal enables user equipment synchronization across bandwidth parts.

Expanding demodulation reference signal ports across consecutive physical resource blocks in advanced communication networks.

User equipment measures time slot proportions to detect synchronization errors in TDD networks.

A signal processing apparatus classifies data streams by update timing and performs time division multiplexing to minimize transmission pins.

A wireless communication device coordinates resource allocation between LTE and WLAN systems using a control unit that acquires transmission information.

Terminal retrieves uplink synchronization timer values from target cell information during handover procedures.

Mapping control resource sets to adjacent synchronization signal blocks reduces detection complexity and improves scheduling flexibility in multi-beam systems.

First indication information updates user equipment on SSB transmission states, reducing unnecessary resource waste from outdated patterns.

Configures reference signal parameters to indicate detection methods for idle user equipment synchronization.

A slave UE synchronizes indirectly through a master UE to lower thermal footprint and prevent GNSS disconnection during platoon operation.

A user equipment preferred gap indication mechanism coordinates base station scheduling to enable simultaneous uplink and downlink transmission.

Acquiring transient time position in spacing symbols enables accurate data transmission decisions despite high subcarrier spacing challenges.

A cell receives synchronization signals directly from a source cell over the air interface using system information and reference signals.

PBCH DMRS carries signaling information via distinct sequences and phase offsets to support network synchronization.

A wireless body-area network synchronizes biosignal timestamps using broadcasted R peak references from wearable sensors.

Adjusting reference signal lengths based on channel conditions minimizes cyclic prefix overhead while maintaining multipath delay handling.

UE checks synchronization parameters after timer expiry to skip unnecessary random access procedures and reduce signaling overhead.

Segmenting network functions into independent units resolves the trade-off between adaptability and complexity while ensuring quality of service.

A user equipment drops a running time alignment timer after maximum scheduling request transmissions to apply new timing advance values.

User equipment validates timing advance for preconfigured uplink resources using reference signal received power changes.

A mobile relay station employs a network controller to manage synchronization and reduce interference during handoffs.

Frequency domain processing determines multipath propagation effects to compensate time of arrival calculations without complex time domain operations.

A network device transmits a subset of synchronization signal blocks within defined windows to enable flexible resource scheduling in shared spectrum.

NR-SS burst set design uses periodic and segmented transmissions to overcome propagation loss in mmWave bands.

Early delivery indications and dynamic margin adjustments resolve edge-to-edge delay skew between media types while maintaining end-to-end latency targets.

Periodic beacon scheduling coordinates node transmissions to resolve hidden terminal collisions while minimizing energy consumption in wireless networks.

Segmenting the TDD frame into flexible subframes reduces data transmission latency below one millisecond while maintaining DL/UL adaptability.

Relocating response beacons merges unsynchronized beacon groups, preventing network partitioning and reducing medium time wastage.

Terminal devices determine uplink subcarrier spacing from network signals to send random access requests using mapped transmission resources.

A concentrator distributes a reference number to sensor nodes, eliminating absolute time management and reducing power consumption.

A terminal determines reference cells based on signaling radio bearer types to measure synchronization signal blocks efficiently.

A sound reproduction installation synchronizes internal clocks using Time Synch Function signals from a shared Wi-Fi network.

A wireless device adapts SMTC windows using satellite ephemeris data to track moving cells.

RRC signaling configures PUCCH on secondary cells to resolve flexibility and complexity trade-offs.

A timing advance group configuration system dynamically updates cell groups via RRC signaling to maintain synchronization during wireless device mobility.

A network node directs synchronization signal transmission using a carrier indicator field to resolve power reduction and half-duplex issues in V2X networks.

Extended synchronization signals embed positional data to secure symbol timing and convey beam indices.

A wireless device determines a delay time based on serving cell signals to monitor paging messages during the specified window.

A remote control apparatus estimates communication delay using a learning model and radio wave index values to adjust operating speeds.

Holding IGP adjacency until LDP convergence prevents VPN traffic drops and reduces SPF computations to a single round.

Wireless devices estimate frequency offsets using segmented reference signal groups to align carrier phases.

A user equipment adjusts monitoring periodicity for preconfigured uplink resource response messages using a configurable time offset.

Replacing hardwired connections with Bluetooth and RF chipsets, the system pairs master and slave units via IV key sharing for reliable synchronous playback.

Direct cellular-to-GNSS interfaces reduce latency and power consumption by bypassing the application processor for frequency corrections.