Synchronisation Arrangement TRIZ Cases

A LoRa gateway receives synchronization frames from a reference node to align its beacon transmission schedule.

A host site calculates dynamic corrective offsets using one-way delay ratios to synchronize unanchored small cell clocks.

A cell selection system transmits airborne parameters to optimize wireless connections for unmanned aerial vehicles.

A terminal receives non-terrestrial network type information from a base station to configure appropriate communication parameters.

Multi-carrier OFDM signals generate virtual carrier phases from measured subcarrier data to enhance positioning precision.

Network nodes determine measurement gap repetition periods based on reference signal periodicity and video frame rates to optimize inter-frequency measurements.

Segmenting SS/PBCH blocks with gaps enables clear channel assessment between transmissions, satisfying ETSI bandwidth requirements.

Mapping a PBCH reference signal to an SS block conveys time index data through phase differences, reducing UE processing complexity by bypassing full decoding.

Adjusts timing advance intervals based on subcarrier spacing to resolve inconsistent effective times across carriers in the same timing advance group.

A synchronization approach tracks time-varying offsets using known satellite ephemeris data.

A base station transmits a Discover Reference Signal at specific time and frequency locations to enable user equipment synchronization.

A radio frequency gain control mechanism sets threshold values to limit automatic gain adjustments during initial synchronization phases.

Selective subcarrier allocation reduces peak-to-average power ratio in OFDM synchronization channels, improving detection accuracy and system efficiency.

Dynamic channel selection for synchronization signals reduces legacy system interference in wide band networks.

Digital Auto-Range Transpond System determines bi-directional radio connectivity through standardized beacon and acknowledgment messages.

Configuring aperiodic CSI-RS resource groups with specific triggering offsets enables terminal devices to receive reference signals in designated slots.

Independent timing advance group timers prevent radio link failures when one carrier loses synchronization while others remain active.

A base station transmits an indicator mapping random access occasions to uplink beams associated with different synchronization signal block resources.

A terminal detects received power via a Physical Discovery Channel in new carrier type cells.

Service-carrier mapping enables user equipment to select appropriate carriers for synchronization signal transmission without external coordination.

Segmenting time information into coarse and fine types reduces Doppler shift estimation errors in non-terrestrial networks.

An infinite Fine Timing Measurement session eliminates periodic renegotiation overhead, ensuring uninterrupted location tracking.

A parent IAB node provides a timing offset to a child node, enabling accurate downlink transmission timing despite propagation delays.

Time-symmetric synchronization channel reduces signal acquisition complexity by providing partial cell identification during initial search.

A duplex transmission channel uses a marked test signal to measure propagation delay, resolving noise interference for echo cancellation.

Broadcasting carrier-aggregation policies enables user equipment to select cells matching bandwidth capabilities, resolving service quality trade-offs.

A base station calculates timing offsets to adjust uplink transmission windows.

Nodes synchronize by comparing received beacon offsets with network references, resolving timing discrepancies in distributed ad hoc networks.

A sending terminal adjusts signal transmission moments to resolve channel congestion in Internet of Vehicles networks.

A base station multiplexes synchronization and broadcast signals across unit bands to support mixed LTE and LTE+ terminals.

A terminal device adjusts timing advance using network-provided information to maintain uplink synchronization in non-terrestrial networks.

Network entities calculate time offsets from TDOA measurements to compensate for asynchronous base station timing, reducing interference without GNSS.

A synchronizing base station selects distinct reference eNBs for frequency and time synchronization to improve signal accuracy.

A base station divides a single synchronization symbol into multiple durations to map distinct sequences, reducing timing ambiguity.

Autonomous wireless backhaul nodes request and select available resources to reduce traffic delay and improve resource utilization efficiency.

User equipment switches between unicast and broadcast network timing references for clock synchronization.

A radio terminal determines connection request timing using its unique identifier to distribute transmission signals across time slots.

Discrete logical oscillators adjust local time variables based on external node data to correct phase drift and frequency skew.

Primary cell site processor groups secondary cells into timing advance groups to maximize component carrier availability for aerial user equipment.

Distinct persistence and back-off values for Enhanced Uplink reduce access delay while maintaining manageable parameter complexity.

A distributed algorithm constructs a hierarchical structure for device-to-device synchronization using hop counts and reliability indicators.

Mapping connection request resources to information segments reduces message payload size, alleviating LTE congestion during high-density access.

Distributed MIMO Slotted ALOHA resolves hidden node collisions in wireless networks by processing multiple simultaneous transmissions via spatial streams.

Synchronous clear to send messages reserve wireless channels before data transmission.

A user terminal receives common parameter information for reference signals and controls measurement result reporting across multiple resources.

Priority-based synchronization signaling reduces latency in ultra-reliable low-latency communications by enabling precise source selection.

Mobile station acquires conflicting cell identification data to distinguish neighboring cells from conflicting ones, preventing misconnection during handover.

Network device compares frequency offsets to distinguish faulty local clocks from received clocks, improving fault localization precision.

A synchronization signal aligns with the 100 kHz channel raster and 15 kHz subcarrier spacing grid to enable efficient frequency synchronization.