Synchronisation Arrangement TRIZ Cases

A multi-board architecture distributes L1 and L2 processing across separate interconnected boards to manage wireless transceiver transmissions.

A receiver samples primary synchronization signals and applies dual-stage correlation to estimate timing offsets.

Nodes measure local propagation delays to optimize time slots without GPS synchronization, reducing deployment costs and improving data transfer efficiency.

A terminal transmits signal strength and channel characteristics to a transmission node for location determination.

User equipment applies timing advance values to uplink transmissions based on scheduling offsets.

A timing advance mechanism calculates uplink transmission positions using cell common time delay information for non-terrestrial networks.

Segmenting frequency resources into specific regions reduces apparatus complexity while maintaining reliable cell identification for IoT devices.

Access point synchronizes time with stations to set transmission start times.

A wireless peripheral controller synchronizes data transfers with host device clocks to reduce latency.

NodeB calculates reception time differences to initiate uplink timing adjustments, minimizing signaling overhead and interference.

A terminal device identifies network timing status update attempts and applies access control mechanisms to manage connection requests.

A wireless synchronization method measures receiving time gaps between pulses to determine device status and decide on clock updates.

A beam sweeping service configures multiple synchronization signal block burst sets with distinct periods based on radio beam utilization.

Master and slave devices analyze communication characteristics to identify specific abnormal positions within the network.

A wireless device determines a maximum operational timing difference parameter based on configured transmit timing management groups to support multicarrier operations.

A controller determines allowable round trip times to synchronize base station and terminal communications.

A terminal configures a new downlink timing reference within a Secondary-Timing Advance Group to maintain uplink synchronization.

User equipment detects physical cell identifiers to identify subframes for paging message reception.

A digital signal arrival detector uses correlators and RSSI to identify valid signals in RF receivers.

A measurement gap distribution system groups 5G carriers by synchronization signal block timing to allocate resources across frequency bands.

A cell search method uses side information to reduce synchronization hypotheses.

A terminal device calculates a timing advance scaling factor to adjust synchronization parameters.

A timing fingerprint database stores SFN-DFN offsets to maintain vehicle-to-vehicle synchronization.

Hub devices broadcast time beacons to synchronize remote nodes, reducing system complexity and power consumption in large-scale AMI networks.

Wireless devices assess candidate base station time synchronization status before handover, preventing connection issues caused by poor time resiliency.

User equipment estimates Doppler shifts on configured TRS resources and reports values via PUCCH or PUSCH.

A 5G antenna array selects sub-arrays for backhaul links using reference signal measurements from user terminals.

Terrestrial nodes broadcast zone timing advance values to eliminate individual measurement delays during uplink offloading.

A wireless device upper layer processes missing reference signals using a configured correlation window to manage radio link status.

Multiplexing primary radio frequency integrated circuits reduces hardware costs while maintaining synchronization reliability.

Segmenting NB-SSS into Golay base and Zadoff-Chu cover sequences reduces computational complexity while maintaining reliable synchronization performance.

Segmenting preamble and procedure counters allows a MAC entity to stop unnecessary power increases, reducing interference during dual connectivity.

User equipment buffers small data transmission failure reports during the radio resource control inactive state for later base station delivery.

Terminals determine SLSS transmission periods based on moving speed to resolve the contradiction between detection reliability and energy consumption.

A decentralized broadcast-only wireless network uses synchronized TDMA frames for node communication.

Segmenting beam measurement instances by priority reduces signaling overhead while maintaining precision for cell switching.

A synchronization method uses interrupt signals and radio frequency packets to align timers between electronic apparatuses.

A synchronization method uses user equipment to measure timing offsets between base stations for frame alignment.

Incorporating beam direction and ID into UTDOA messages improves locating accuracy without redesigning the existing system architecture.

A synchronization signal block structure segments transmission into bursts to support beam management and cell identification in wireless networks.

A timing advance timer manages partial compensation in full duplex wireless links, resolving uplink timing misalignment that degrades communication reliability.

Base station maps WLAN AP beacon times to grouped time areas, enabling terminals to discover networks passively and reduce data burden.

Base station carries preset indication information in downlink signals to notify terminals about supported types.

A first radio network node initiates automatic neighbour detection by requesting a core network node to select second nodes based on geographical information.