Synchronisation Arrangement TRIZ Cases

Providing multiple uplink grant time locations allows new-type devices to skip legacy signaling steps, reducing control plane latency in wireless networks.

Aperiodic beam failure detection reference signals reduce signaling overhead and accelerate recovery compared to periodic transmission methods.

Remote units measure drift delay to adjust transmission timing, preventing data burst collisions in geostationary satellite systems.

Statistical analysis of time-of-flight measurements compensates for wireless signal propagation delays.

Base stations encode system parameters into synchronization signal sequences and positions, eliminating blind decoding complexity during initial cell search.

A wireless device estimates propagation delay to generate accurate timing references for sidelink transmissions.

Transmitting a subcarrier offset via PBCH defines the resource block grid, resolving wideband synchronization complexity without extra signaling overhead.

Signaling reference uplink grant configurations reduces RRC overhead while enabling accurate transmission parameter adaptation.

Segmenting the spectrum into adaptive sub-bands mitigates frequency collisions between unsynchronized IoT devices, increasing network capacity.

Terminal device detects link failure on MIB configured control resource set and sends recovery request to restore communication.

Local buffer synchronization bypasses network mixing delays, enabling independent gain control and HRTF-based spatial projection for each participant.

A two-step random access procedure combines uplink preamble and data into a single message exchange between user equipment and base station.

A zone-based sidelink time synchronization mechanism partitions geographic areas to manage timing signals between user equipment.

Base station configures multiple uplink resources allowing terminal to switch beams and maintain communication continuity during signal interruptions.

Calibration UE determines channel latency using propagation delay and time of arrival data to correct base station timing errors in TOA positioning.

Terminal reports relative timing advance derived from distance relationships, reducing bit overhead caused by large satellite propagation delays.

A network analyzer monitors connectivity status and switches communication channels to maintain stable device connections.

A NAN device adjusts sync beacon transmission based on its role and state to prevent cluster merging conflicts.

A synchronization method transmits state information alongside signals to allow terminals to determine timing directly.

Segmenting cell search into coarse raster identification and fine offset calculation reduces device complexity while maintaining precise RF carrier positioning.

A wireless communication apparatus measures propagation delay using synchronization codes to determine physical layer updates.

Checksum verification detects buffer desynchronization between base station and terminal, preventing failed data decompression in LTE uplink transmission.

A phase offset compensation unit inversely rotates signal data to correct orientation errors during frequency shifting.

Mobile devices determine cell-specific parameters by counting system clock cycles from known reference points, reducing initial cell search complexity.

Dynamic timing offset selection resolves uplink-downlink misalignment caused by varying propagation delays, improving synchronization reliability.

Storing content at the base station bypasses core network hops, reducing transmission delay and improving user experience.

Broadcasting a common timing adjust command synchronizes user equipment, resolving glitches from asynchronous feeder link propagation delays.

User equipment measures synchronization parameters between base stations to enable precise transmission waveform adjustments.

Dynamic delay adjustment resolves synchronization conflicts during intermittent connections by continuously measuring and correcting clock times.

Measuring carrier phases across multiple frequencies resolves integer ambiguity and mitigates phase noise for scalable high-accuracy location determination.

Network device allocates distinct subcarriers for NR-PSS, NR-SSS, and NR-PBCH to resolve LTE mapping incompatibility in New Radio systems.

Dynamic measurement time adapts to varying bandwidth and beamforming configurations, resolving NR cell identification errors.

Base station shifts candidate reference signal positions and detects channel availability to transmit during idle slots.

A network controller synchronizes switches to a common clock and schedules packet departure times across the infrastructure.

Band-dependent synchronization signal configuration adjusts antenna ports and transmission power per frequency band.

A communication system updates time synchronization correction values using line monitoring units to determine transmission path status.

Mobile entities embed global timestamps in uplink messages to resolve LTE system frame number wraparound limitations.

Segmenting synchronization signals by D2D type prevents cross-type interference and reduces detection complexity in LTE direct connections.

A synchronization apparatus estimates angles between base station paths and target nodes to calculate distance differences for timing correction.

Slave devices calculate actual standard time by compensating transmission delay, eliminating manual configuration across multiple digital devices.

A wireless device computes average time differences using validity filtering and smoothing processing to achieve precise synchronization.

Device disables neighbor awareness networking cluster merging via deactivation signal to prevent synchronization conflicts and data cutoffs.

A terminal receives specific resource exclusion information from a peer device to perform device-to-device operations within remaining available resources.

Fast transmission indications allow base stations to bypass standard RRC connection procedures, reducing transmission delays for small data packets.

Configuring timing advance parameters dynamically supports scalable numerology across diverse user equipment.

A terminal device receives random access response information from multiple network devices based on indication signals.

A G.hn node transmits full-duplex frames by loading distinct subcarrier groups with phases derived from unique seeds for simultaneous bidirectional data exchange.

A synchronized generation method consolidates multiple persistent connection signals into a single radio transmission schedule.

A MIMO Bluetooth module uses synchronized transceivers with non-overlapping frequency maps to enhance communication efficiency.

A mobile channel sounding transmitter establishes a wireless side link to synchronize with a receiver without physical cables.