Synchronisation Arrangement TRIZ Cases

A radio node selectively provides synchronization information for device-to-device communications by receiving stop indications to manage relay status.

Interface merges messaging with streaming via stream-relative timestamps, eliminating application switching overhead.

A sidelink synchronization reference signal maintains time and frequency alignment between connected user equipment.

A synchronization channel structure transmits a message part followed by a preamble part to accommodate transition time gaps between transmission and reception states.

Base stations dynamically activate reference signal muting patterns to resolve the contradiction between synchronization detection accuracy and system capacity.

Transmitting paging on wideband carriers reduces signaling load across multiple beams while maintaining coverage.

User equipment detects synchronization sequence parameters from neighboring base stations and reports them to the serving network.

Nodes estimate propagation time with predictive models to reduce latency and conserve network resources in uncoordinated sensor deployments.

A synchronization method calculates air interface offsets between base stations using existing network resources.

Ethernet synchronization eliminates dark fiber complexity while reducing noise interference through coordinated multi-head transmission.

A clock bias model updates parameters to approximate received reference signals, correcting time-variable drift in mobile positioning.

Data processing hardware analyzes satellite frequency usage patterns to enable high altitude platforms to reuse identified communication frequencies.

Autonomous D2D user equipment generates synchronization signals using predefined resource pools, reducing network load while maintaining reliable peer discovery.

Network device configures terminal to measure received signal power on specific downlink symbols, reducing measurement complexity and power overheads.

Segmenting Type 1 and Type 2 PDCCH orders reduces interruption time during cell transitions without full resets.

A timing advance validation mechanism manages uplink synchronization for idle user equipment using preconfigured resources.

User equipment maintains separate timing advance values for multiple beams to sustain uplink transmission.

A weighing scale synchronizes time with peripheral physiological sensors using latency-based adjustments to maintain data coordination.

User equipment transmits multiple preamble signals to determine valid timing advance parameters, reducing collision probability during random access.

Base station signals a CORESET configuration index within the synchronization signal block to define the initial active downlink bandwidth part.

User equipment verifies preconfigured uplink resource validity across multiple cells, reducing power consumption and network load in non-continuous coverage.

Wireless sensors calculate a synchronization offset from access point timestamps to resolve packet delay issues in avionics monitoring networks.

An overlaid synchronization signal multiplexes with physical control channel resources to enable detection without prior configuration.

A proximity awareness networking method manages device clusters by selecting service-based mobility functions and creating inner groups.

A terminal receives a synchronization signal on a downlink carrier to implement frequency synchronization with an LTE uplink carrier.

Detecting synchronization signals sets reception timing windows, reducing battery consumption in inter-cell D2D communication.

Nested orthogonal phase pattern vectors resolve carrier frequency offset estimation challenges in mmWave systems while maintaining signal orthogonality.

A processor requests alternative synchronization information from paired devices to restore broadcast isochronous stream connectivity.

A wireless transceiver determines a synchronization time offset from reference signals to place the receiver symbol processing window.

Base station coordination provides timing references for UE transmission, resolving the trade-off between synchronization reliability and resource overhead.

User equipment calculates timing advance from propagation delay to maintain synchronization accuracy despite shortened cyclic prefix lengths.

A base station configures a mini-slot using remaining synchronization signal symbols to transmit downlink control information.

A preamble symbol receiving method uses three-segment structures for timing synchronization and frequency offset estimation.

A user equipment determines candidate synchronization signal parametrisations by mapping parameters from a second cell to reduce measurement complexity.

A user equipment decodes NR data by applying LTE PRS rate matching patterns, resolving interference with positioning signals.

User equipment calculates frequency shift values and change rates from satellite ephemeris data to correct signal distortion at high relative speeds.

Adjusting uplink symbol durations and inserting guard intervals prevents timing collisions between sounding reference signals on different beam pairs.

Test apparatus extracts timing information from downlink signals to generate synchronization pulses for uplink frame emission.

A time division scheme-based MAC protocol synchronizes nodes to select unoccupied time slots for message broadcasting.

Embeds 802.1AS Vendor Specific Information Elements in Location Measurement Report frames to reduce air-time overhead for multiple stations.

A terminal receives first configuration information to determine a measurement frequency list for asynchronous SSBs.

An access point processor detects time differences between its system clock and a controller clock to identify abnormal clock conditions.

A base station uses master information block and synchronization signal block data to locate machine type communication system information blocks.

A fronthaul system synchronizes and sums uplink antenna-carrier streams across radio equipment modules to optimize fiber usage.

A wireless device applies a new radio resource configuration and initiates a random access procedure toward a secondary base station.

Nodes leverage NB-IoT timing signals for synchronization, eliminating complex coordination while reducing power consumption.

Segmenting random access resources by synchronization signal block reduces signaling overhead and delays while maintaining reliable beam matching accuracy.

A base station signals a timing advance range to user equipment, enabling the device to adjust its uplink transmission timing based on specific capability.

A reservation unit determines absolute transmission times for IoT terminals to disperse network traffic.