Synchronisation Arrangement TRIZ Cases

Timing signals let passive IoT devices schedule responses in cellular TDD slots, reducing interference for half-duplex wireless nodes.

A network node uses propagation-delay criteria to configure guard-period symbols and reuse switching-time resources for D2D sidelink communication.

Enabling SRS transmission to non-serving cells with PL and TF references supports positioning and inter-cell mobility measurements.

When SLSS occasions collide with PSFCH feedback, channel-linked priority parameters determine which sidelink signal is transmitted or dropped.

TSN translator parameters travel in a NAS request to the AMF, enabling PDU session setup across diverse access networks.

Missing reference signals can disrupt in-sync decisions; weighted measurements and failure thresholds improve NR link monitoring in unlicensed bands.

Multiple MAC-CEs increase signaling overhead when carrier aggregation configures TCI states per component carrier; one command cuts messages and power use.

SIB1 identifies the RedCap initial BWP by frequency location, subcarrier spacing, and cyclic prefix, reducing terminal complexity during 5G access.

Inter-slot repetition adjusts PT-RS time and frequency density to improve phase tracking while limiting signaling overhead in high-frequency links.

Separate timing advance values for target network devices help terminals overcome synchronization errors and improve uplink reliability and coverage.

Limited kssb bits hinder RMSI-to-SSB offset indication at high SCS; RB-based mapping extends coverage into FR2x.

Adaptive overlap between BLE CIS sub-events uses ACK signals to balance reliable delivery, efficiency, and power consumption.

Using UDM subscription data, the 5G network identifies AS- and PTP-based support, error budgets, and allowed areas for controlled terminal synchronization.

Time-varying satellite delays can create overlapping uplink slots; this case uses TA prediction and priority rules to avoid conflicts.

A slave-mode repeater synchronizes with a designated modem to extend coverage and support high data rates without disrupting nearby devices.

When one IEEE 802.11 link ends early, a designated-timing trigger frame helps recover synchronization across multi-link communication.

A wireless device reports elapsed time between ETA and LTM events to help reduce handover latency in heterogeneous networks.

SSB-based cell selection gives the UE a clear path to initial access when multiple cells share a downlink carrier.

Pre-configured uplink resources let NB-IoT and M2M terminals send small data without full RRC setup, reducing PRACH time, latency, and power use.

Network indications adapt SSB periods while UE UCI identifies valid PUSCH occasions, reducing overlap and energy waste.

Aligning NR and LTE synchronization priorities helps sidelink devices share a reference source and avoid interference from non-synchronization.

Default SSB searches can add unnecessary delay, while multiple patterns let terminals select suitable periodicity and candidate quantity.

The approach keeps a target device’s periodic advertisement synchronized while BIS synchronization stops, reducing handover delay and power use.

Clock drift reports let a managing device configure RF sensing signals and session windows for better resolution and velocity resolution.

Scheduling multiple non-zero-power CSI-RSs in a subframe supports time and frequency synchronization while reducing CRS overhead, energy waste, and cell interference.

Dynamic A2DP and CSB path selection helps portable Bluetooth players preserve synchronous audio as signal strength changes.

Terminal equipment calculates CP extension from preceding symbol length to support correct uplink transmission in unlicensed NR bands.

Reference-point control information improves NTN uplink timing accuracy as satellite movement changes propagation and feeder-link delays.

This case aligns HE and EHT fields with padding and subbands to prevent interference during simultaneous WLAN transmission.

Hybrid SSB indexing improves NR synchronization despite millimeter-wave path loss.

This case adds penalties to EDCA backoffs after OFDMA transmissions, reducing collisions and restoring fairness between node types.

This case uses SSB muting, puncturing, frequency shifting, and slot partitioning to protect uplink reliability in full-duplex operation.

Modified Wi-Fi signals enable accurate indoor positioning without dedicated pseudolite hardware.

Context-based broadcast decoding skips unnecessary rasters during initial access.

In dual connectivity, master nodes add PCI and frequency or global cell IDs so secondary nodes match timing differences correctly.

Trigger frames carry other-link identifiers to coordinate multi-link transmission timing and reduce interference between links.

This case uses grouped S-SSB opportunities and advance LBT checks to reduce delay while maintaining unlicensed-channel access compliance.

Pre-configured SPS resource groups and propagation-delay compensation improve TSN packet timing and spectral efficiency.

This case uses timing advance reporting and adaptive scheduling offsets to limit interference from variable satellite propagation delays.

Broadcast network-device information and periodic checks support timely reselection or handover with lower terminal power consumption.

This 5G communications case uses frequency-multiplexed SSBs in one serving cell or bandwidth part to accelerate search and synchronization.

This case preconfigures resources, preambles, reference signals, and GF-RNTI feedback to simplify grant-free UE access.

Control-link timing, timing advance, and delay adjustment synchronize out-of-band forwarding links for fewer resource collisions.

This case uses grouped PRACH resources and adaptive TA commands to recover random access under varying round trip delays.

This case reports UE timing misalignment to satellites, aligning communication schedules without continuous uplink adjustment.

A UE uses downlink signals from multiple base stations to align CLI timing and reduce inter-symbol interference.

Separate indication paths let NTN networks update TA and RTT without triggering full system information retransmission.

Pre-signaled timing advances help terminals synchronize before cell handover.

A shared CIG presentation point coordinates separate BLE CIS channels for synchronized left and right TWS earbud audio.

MAC-CE reference signals synchronize SCells for reliable multi-TRP transmission.