Synchronisation Arrangement TRIZ Cases

Repeated time-domain windows let UE measure PRS phase differences within one window, removing timing errors and preserving phase continuity.

Predefined synchronization bandwidths and signaled PDCCH numerology let mixed-bandwidth UEs access next-generation cellular networks.

Segmented DCI blocks help NR-U terminals cut PDCCH blind detection time while preserving accurate cell and resource indication.

Aligns RRC and PSBCH TDD timing so terminals inside and outside coverage share a consistent sidelink resource pool with lower complexity.

Measures frame timing differences at transmission-node level so multi-TRP serving cells can report more accurate SFTD for synchronization.

Synchronized AP timing, orthogonal resource assignment, and directional uplink/downlink cuts contention and latency in dense wireless networks.

Hardcoded and scaled offsets let UEs locate Type0-PDCCH after SSB bursts at 480 and 960 kHz SCS for reliable initial access.

Time-synchronized Doppler null scanning derives bearing and relative position without explicit node data exchange, improving resilient PNT.

Selected CSI-RS and SSB receive beams let a UE measure cross-link interference by direction and report it for better beam pairing and TDD tuning.

Stored timing advance from candidate cells lets the network skip random access during switching, cutting terminal power use and interference.

Selective BWP activation and deactivation during candidate cell switching cuts UE power use, signaling overhead, and management complexity.

When uplink transmissions from different timing advance groups overlap, UE selection conditions prioritize one signal to limit interference and preserve reliability.

Terminal feedback on beam, uplink carrier, BWP, and RACH failures helps the network tune random access parameters to cut collisions and improve access success.

Shared timing advance from a first candidate cell lets a terminal skip extra random access, cutting power use and interference.

Broadcast and unicast clock quality updates help idle or inactive UEs maintain timing synchronization for reliable URLLC communication.

Controlled overlap signaling lets WLAN devices request low-latency channel access during ongoing PPDU reception without disrupting priority data delivery.

Identity-based signatures let UEs verify broadcast system information from legitimate base stations before security algorithms are agreed.

Pre-configured and activated uplink grants let terminals access candidate cells without random access, cutting handover interruption time.

A multi-antenna LEO relay uses MIMO, diversity, and beamforming to carry IoT data from remote buoys and mountains to base stations.

Uses available SSB, TRS, and CSI-RS signals to cut idle-mode wake-ups while maintaining AGC, tracking, and paging monitoring reliability.

By excluding candidate resources and limiting NR sidelink to the first slot, LTE reception failures from AGC oversaturation are avoided.

Staggered frequency switching speeds synchronous wireless connection setup while preserving stable communication in industrial environments.

Adaptive PDC triggering helps terminal and network devices achieve sub-900 ns synchronization for time-sensitive wireless services.

Predictive UE pairing aligns data requests for simultaneous transmissions, improving MU-MIMO use while cutting energy and heat.

Upstream send-time adjustment aligns downlink packet arrival with scheduling windows to cut waiting delay and preserve end-to-end delay guarantees.

Frequency control information lets GNSS and non-GNSS terminals correct NTN Doppler shifts, improving uplink efficiency and easing base station processing.

RAR- and DCI-based Msg3 PUSCH repetition control extends 5G NR random access uplink coverage without separate pre-connection signaling.

Periodic delay checks let a shared remote unit detect and restore downlink synchronization errors across multiple main units.

Control information sent during uplink or downlink gaps helps NTN links stop unnecessary repetitions, cutting delay and power use.

Specific SFN mode indication via RRC, TCI state, or PDCCH helps network and terminal devices execute MTRP processing correctly.

Preconfigured PDCCH occasion to SSB mapping helps terminals receive MCCH reliably during beam sweeping across NR RRC states.

Adaptive correlation thresholds improve frame synchronization accuracy under varying data patterns while reducing power waste in wireless receivers.

SSB-based puncturing patterns align CORESET #0 in 5 MHz bandwidths to minimize partial CCEs and protect channel estimation.

Advance source-change signaling lets V2X UEs switch synchronization together, reducing sidelink disconnection and keeping broadcasts continuous.

Beam-specific counting indications improve multicast broadcast resource allocation and reliable delivery for NR sidelink, V2X, and IoT use.

Multiple timing advance groups let a wireless device handle TAT expiry across SpCell PTAGs, improving alignment reliability in heterogeneous networks.

Auxiliary frequency-position information lets terminals locate synchronization signals faster across flexible carriers while cutting search time and power use.

A smoothing filter tempers clock frequency corrections in the feedback loop to cut jitter and keep synchronization stable.

Timestamp-based network reporting aligns audio, video, and touch flows for end-to-end synchronization while limiting signaling overhead.

An AP proxy schedules sensing measurement periods in WLAN radio frames, cutting latency and signaling waste during multi-band communication.

When a candidate cell becomes unavailable, the terminal keeps or discards timing advance by network indication to preserve uplink timing consistency.

Multiple OTT reference signals are scaled by a confidence-based factor to derive more reliable positional uncertainty in wireless positioning.

Predicted TSF values compensate for read delays in multi-radio wireless audio links, cutting latency while keeping playback synchronized.

Preconfigured cell group activation in MR-DC cuts signaling overhead and interruption time while preserving terminal communication reliability.

Threshold-triggered uplink time quality requests keep network elements aligned while reducing signaling delay, overhead, and terminal power use.

Coordinated TXOP timing across idle WLAN links raises multi-link throughput and cuts latency while keeping access compatible with existing standards.

Configured grant SDT in RRC inactive mode switches to dynamic grant when TAT expires, preserving timing alignment and spectral efficiency.

GPIO PPS pulse detection measures N3-to-NW-TT clock offset in a 5G UPF, enabling sub-100 ns multiport time synchronization.

Timing advance lets the network calculate RTT transmit-receive offsets, improving terminal positioning without strict base station synchronization.

Early timing advance acquisition and conditional handover help a wireless device recover from secondary-cell link failure with less interruption.

Coordinated antenna nodes maintain a super-cell with shared identity to minimize Doppler shift interruptions and improve throughput.

Macro eNBs forward scheduling information to pico eNBs, which synchronize nearby user equipment timing to reduce uplink interference and battery drain.

Devices calculate distance from signals to assign master roles, resolving synchronization reliability issues in Neighbor Awareness Networking.

A user equipment measures signal aspects for multiple receive beams to determine a preferred beam and initiates a beam-sweeping procedure.

Offsetting resource blocks generates a network listening synchronization signal that resolves indoor GPS blockage while maintaining high precision.

Adjusting D2D communication bursts compensates for timing conflicts during device mode transitions, ensuring reliable data reception.

Segmenting frequency scanning into MRU and PLMN GSCN phases reduces 5G camping delays while maintaining connection reliability.

Nodes adjust slot timing by comparing expected and actual arrival times, eliminating time-stamp exchange overhead in mobile ad hoc networks.

Master clock devices transmit wireless synchronization signals to node receivers, eliminating noisy physical routing and reducing power consumption.

A first device uses separate transmit and receive antennas to measure calibration delay for precise round-trip time determination.

Auto-correlation values of a preamble are averaged and compared with reference values after cell search verification to reduce false alarm rates.

A preamble signal transmits synchronization information before data in unlicensed bands.

Configuring wireless devices with specific GNSS measurement gaps enables continuous time and frequency corrections in Non-Terrestrial Networks.

Pre-configured candidate beams reduce latency and power consumption during non-standalone initial access to new radio carriers.

A method determines timing advance values using downlink signaling and reference parameters for uplink transmission.

Dynamic RLM evaluation windows adapt to listen-before-talk patterns, reducing false radio link failure triggers in unlicensed spectrum.

An intermediate node synchronizer exchanges data with child nodes to establish time synchronization before parent alignment.

User equipment transmits UE-specific synchronization signals to establish direct links, bypassing network mediation for emergency discovery.

A base station dynamically switches between master and slave modes to maintain clock synchronization.

A signal processing method configures antenna beams to separate received signals by direction and estimates their individual delays.

Server calculates accurate remaining processing time after disconnection to resolve time display discrepancies across user terminals.

A synchronizer adjusts digital signal processor packet generation to match polled transmission windows in IEEE 802.11e networks.

A medium access control protocol data unit uses subheader indicators to signal random access preamble identity presence.

Control device suppresses macro cell resource consumption by preventing terminals synchronized with small cells from connecting to the macro cell.

Inserting PT-RS samples into intermediate sequence locations avoids boundary convergence errors from the IDFT window effect.

A GNSS receiver case transfers satellite data to a mobile device via low-energy Bluetooth.

Segmented bitmap indication determines target SSB resource locations, reducing signaling overhead during initial access in NR-U networks.

A terminal device generates uplink signals using predefined synchronization sequences within a superframe structure.

Receiving relay capability indication allows first transmission points to efficiently acquire resources and resolve access efficiency bottlenecks.

A network slicing framework allocates dedicated resources to device-to-device groups.

User equipment compares scheduling offsets to adjust uplink transmission timing for non-terrestrial network alignment.

GNSSG generators distribute precise global time via wired links to wireless nodes, eliminating message delay unpredictability.

A wireless data processing device adjusts encoding parameters based on measured delay times to optimize transmission.

Coordinator transmits beacons in unallocated guaranteed time slots, increasing reception probability and reducing network formation time.

A detection circuit evaluates synchronization signal data to identify duplex mode within a single cell scan operation.

Resource pool determination uses sidelink synchronization signal indices to resolve conflicts between sensing and communication user equipment.

Segmenting NIDSL ranges separates V2X terminals from D2D systems, preventing interference with D2D synchronization processes.

Sniffing air traffic buffers audio data in the secondary earbud during the primary handover, maintaining continuous A2DP streaming while avoiding link glitches.

Assigning unique words to terminals enables receiver correlation of signal bursts, resolving user separation complexity in SCMA systems.

A wireless radio component detects asynchronous medium availability to transmit data during scheduled intervals.

IoE devices exchange timing signals through device-to-device links, reducing power consumption by minimizing wake-up cycles for mesh routing.

Base transceiver stations process blockchain transactions internally, reducing latency and enhancing security by minimizing external network exposure.

A terminal apparatus maps PTRS signals to resource elements using pseudo-random codes and configurable parameters.

A presence server routes human-readable addresses to public safety answering points, bypassing location inaccuracies caused by large cellular coverage areas.

Network device configures measurement gaps using synchronization signal frequency regions to resolve inaccuracies caused by carrier frequency mismatches.

Calculates timing advance by incorporating satellite ephemeris and terminal positioning errors to prevent intersymbol interference during random access.

Processor maps synchronization sequences to OFDM resource elements with intermediate gaps.

Segmenting synchronization signals into repeated copies within subframes resolves the trade-off between detection reliability and acquisition duration.

Segmented preamble sequences allow mobile stations to distinguish between narrowband and broadband systems, resolving backward compatibility conflicts.