Synchronisation Arrangement TRIZ Cases

Segmented Wi-Fi frames exchange timestamps between wireless stations to calculate round trip time, resolving multipath signal errors in indoor environments.

A narrowband IoT user equipment manages multiple downlink and uplink carriers within unlicensed spectrum bands.

A timing advance method averages multiple transmission values to align device synchronization.

Aggregated time division duplex carriers with offset temporal grids enable flexible uplink downlink switching for reduced transmission latency.

A base station transmits synchronization signals over unlicensed carriers selected via carrier sensing to support user terminal communication.

A communication control device determines medium reservation schemes to coordinate channel access among heterogeneous radio systems.

Mobile devices synchronize primary device controllers via local wireless networks, eliminating wired connections and simplifying configuration.

Wireless relay devices transmit synchronization signals through existing control channels to maintain terminal device timing.

Fixed offset alignment eliminates synchronization signaling, reducing initialization delay and complexity.

Cloud server filters transmission parameters to match receiver reception areas, eliminating unnecessary data processing for out-of-range transmitters.

A network access node transmits a control message to trigger a client response signal for maintaining uplink time-synchronization.

Dynamic gateway selection using collected clock datasets optimizes frequency accuracy while reducing deployment costs across mobile network domains.

Distinct operation modes for SS/PBCH blocks enable larger subcarrier spacing, resolving initial cell search performance issues in higher frequency ranges.

Hierarchical slot assignment synchronizes unicast transmissions to reduce retransmissions and network latency in frequency-hopping mesh networks.

A clock tracking system converts future event target times from a master device to local slave time bases using calibration messages.

A communication node generates multiple system clock signals using dedicated generators to synchronize distributed antenna components.

Calculates timing start points from last repeated transmission positions to resolve coverage enhancement timing mismatches.

Master device buffers audio signals to synchronize playback across networked slave units despite transmission latency differences.

Segments uplink resources into dedicated measurement intervals to maintain throughput while enabling accurate MPE estimation.

Wireless devices manage multiple timing advances through differentiated physical random access channel resources for distinct transmission reception points.

A user equipment manages uplink timing alignment using configured timers during secondary cell group dormant periods.

A delay amount measurement unit tracks time-synchronization signal latency variations to detect communication anomalies in mobile networks.

Access terminals report timing differences between femto and macro cells, enabling synchronization that avoids interference during active calls.

A mobile device determines a sidelink resource pool by applying repeated bitmap patterns to exclude synchronization signals and uplink subframes.

Master device assigns target count values and offset times to slave devices, enabling simultaneous data frame collection in BLE piconets.

Second nodes determine reference timing using open-loop, closed-loop, and external synchronization modes for wireless backhaul links.

Independent time alignment timers manage distinct timing advance groups, resolving conflicts between multiple cells and reducing signaling overhead.

Devices use broadcast signals to establish a common timing structure, resolving the trade-off between synchronization reliability and system complexity.

A base station calculates roundtrip time to add precise timestamps to mobile unit messages.

A receiving transceiver unit generates synchronization data records describing time relationships between device and equipment clock states.

Network device indicates a frequency offset between synchronization signal and carrier PRB grids for terminal resource determination.

A terminal device receives a single timing adjustment parameter from a network device to synchronize transmit timings across multiple uplink carriers.

A host device merges multiple data streams over a wireless link using wired standards to boost throughput.

Terminal device radio link monitoring using proportional in-sync and out-of-sync indication counts to update timer states.

A wireless device evaluates Timing Advance validity and sends an indication to the network node.

User equipment selects the downlink timing reference from the earliest received signal among coordinated transmission points.

A base station transmits unified DMTC information to a UE for simultaneous channel measurements on neighboring cells.

Segmenting fixed guard periods by user equipment round-trip time reduces waiting times and improves transmission efficiency.

A frequency domain detection filter processes uplink synchronization signals in high-frequency wireless systems.

A user equipment performs listen-before-talk procedures in a first shared radio frequency spectrum region to access resources in an overlapping second region.

A wireless access method transmits differentiated signal sets across multiple resources to enable rapid user equipment synchronization.

A UE receives an early indicator from the eNodeB to stop PDCCH monitoring during the random access response window.

A time sync reference unit uses machine learning to calculate synchronization deltas, resolving communication errors in wireless backhaul deployments.

A transceiver selects the best antenna by searching for a signal preamble across multiple frequencies to synchronize data reception.

Mobile terminals relay synchronization data between isolated base stations, resolving DSL backhaul timing phase synchronization accuracy limitations.

User equipment transmits uplink control information on a secondary cell while dropping primary cell physical uplink shared channel transmissions.

A transmitting device duplicates frames across multiple wireless links to ensure reliable data delivery in time-sensitive networks.

A split fronthaul interface transmits user plane data in symbol-by-symbol packets to enable uniform processing at the receiving stage.

Segmenting Tx-Rx time difference into coarse and fine components minimizes information size while maintaining measurement precision.

Compensating uplink timing adjustments resolves positioning errors caused by non-co-located carriers, ensuring reliable location data.