Synchronisation Arrangement TRIZ Cases

User equipment measures round trip time between base stations to enable timing synchronization without GPS signals.

Mobile stations adjust access timing via stored values to coordinate with base stations across multiple component carriers.

A pluggable synchronization module integrates a GNSS receiver with an SFP interface to deliver precise timing signals.

A base station adjusts transmission timing across multiple antennas to cancel inter-symbol interference in wireless systems.

A user equipment resource selection unit maps synchronization signal periods to random access channel resources for preamble transmission.

Autonomous timing advance adjustment reduces signaling overhead and improves synchronization for non-geostationary satellite links.

Random back-off procedures prevent synchronization collisions among access nodes when root nodes fail.

A communication apparatus adjusts transmission timing using unique device parameters to enable flexible design.

Extending the evaluation period compensates for listen-before-talk blocking, reducing mis-detection rates for synchronization states in unlicensed bands.

Periodic transmission gaps allow timing advance updates, maintaining orthogonality despite long satellite delays.

Adjusts transmission timing for 5G IAB nodes using GNSS or base station signals to maintain synchronization across multi-hop networks.

A terminal selects discovery resources from a base station pool to enable device-to-device communication.

A network server constructs timing parameter packets and broadcasts them to synchronize nodes without dedicated signal lines.

A user terminal reception section receives synchronization signal blocks containing bit information for control resource set configuration.

Communication apparatus detects neighbor awareness network clusters and transmits existence information to facilitate cluster merging.

A terminal device requests specific time precision via unicast signaling, resolving conflicts between synchronization accuracy and network resource consumption.

A base station apparatus determines propagation delay to calculate a time adjustment for uplink messages.

Communication terminal adjusts transmission timing based on clock mismatch information to synchronize periodical data flows and mitigate buffer overflows.

A timing chip calculates time delays from baseband signalings to synchronize terminal clocks with a base station.

A PTP pod deploys timing configuration via a network service orchestrator to synchronize distributed unit pods.

A UE maps demodulation reference signals onto physical sidelink shared channel resources based on control information patterns.

Adapting modulation and coding schemes to frequency bands mitigates phase noise in high band wireless communications.

Shifted synchronization sequences map cyclic shifts to channel resources, resolving interference and coordination complexity in unlicensed bands.

Comparing transmitter and receiver addresses in CF-End frames prevents unintended devices from resetting NAV timing, reducing interference and packet loss.

A hierarchical multi-clock-domain synchronization method determines master clocks locally to achieve nanosecond precision in radio access networks.

A method determines timing advance using round trip time measurements between synchronization signals and random access procedures.

Configuring the uplink alignment timer prevents timing misalignment caused by large propagation delays in non-terrestrial networks.

A processor switches frequency hopping patterns to adapt transmission parameters.

Synchronized contention window full duplex protocol doubles throughput by mitigating self-interference and supporting legacy nodes.

TDM-based primary and secondary sync channels acquire frame boundaries and scrambling codes, reducing cell search time and battery power consumption.

A wireless communication method transmits uplink control information within a guard period using timing advance values.

A D2D UE applies timing advance indicators to align reception timing, resolving synchronization conflicts in autonomous transmission modes.

A terminal synchronizes uplink transmission using a downlink reference signal from a second base station.

A DCI format includes a target TAG indicator field to identify the cell for random access responses.

Negotiating media stream synchronization at the link layer resolves voice-video delay conflicts by adjusting EDCA parameters dynamically.

A user equipment identifies uplink time-domain resources to determine downlink monitoring gaps.

Wireless devices transmit capability messages indicating support for channel state information processes per bandwidth part of a cell.

Packetized data streams embed event tags to enable precise time tagging across unsynchronized terminals.

Source base station forwards precision clock data to user equipment, resolving desynchronization during wireless handover.

Bluetooth module segments broadcast data packets to reduce packet loss and improve voice response speed.

A synchronized measurement device uses local area network ethernet messaging to sample data with time-stamped clocks.

Multiple PUCCH configuration sets address mismatched parameters in flexible duplex TDD frames, enhancing transmission reliability.

A distributed unit configures mobile terminal measurements for crosslink interference detection across integrated access and backhaul nodes.

A terminal device determines unavailable resources for Remaining System Information based on first-type Synchronization Signal Block positions.

A wireless device inserts a time gap between uplink transmissions to enable frequency error compensation.

A wireless master device adjusts slave clocks to aggregate event timing windows into a single group window.

A user equipment transmits synchronization signals to configure device-to-device discovery resources.

Detector units extract time-frequency uplink allocations from downlink signals to synchronize with the wireless network air-interface.

Mobile station determines downlink frame boundary using propagation delay and signal strength of received beams.