Synchronisation Arrangement TRIZ Cases

User equipment determines a search window for synchronization signal blocks using parameter bitmaps and timing configuration to optimize measurement resources.

Decoding SS/PBCH blocks enables time division duplex synchronization without GPS, reducing deployment complexity.

NR-U radio link monitoring evaluation periods adapt to listen-before-talk failures, reducing false alarms and latency while improving positioning accuracy.

A wireless communication device calculates signal propagation times by accounting for internal transfer delays using pre-stored fixed time parameters.

A user equipment allocates shared time-frequency resources between subscriber identity modules using dynamic pause indications.

User equipment acquires target cell global identity by assuming SIB1 repetition periodicity from SMTC configuration, resolving the decoding deadlock.

A translator stops communicating time information when unsynchronized with a clock source to prevent error propagation.

Configures synchronization signal block indication based on slot and spacing to maximize blocks, reduce latency, and improve 5G efficiency.

Second user equipment sets a time window to receive device-to-device signals based on transmission timing from a first terminal.

A vehicle network synchronization method selects a new reference grand master node based on measured time offsets between local and reference clocks.

Monitoring apparatus detects timing and frequency offsets between wireless access points using user equipment signal reports to synchronize network clocks.

A signal transmission method optimizes access signal time intervals by adjusting uplink and downlink distribution density for efficient beam sweeping.

Signaling timing advance values aligns transmission across nodes to reduce latency and avoid conflicts in self-backhauling.

Base station segments user equipment into paging groups to transmit targeted control channel information via directional beams.

Synchronizing Hyper Frame Numbers during entity reset allows applying new ciphering configurations without losing synchronization between uplink and downlink.

User equipment adjusts timing advance values based on mobility state and signal quality, reducing unnecessary signaling overhead and power consumption.

Configuring synchronization raster offsets for user equipment resolves the trade-off between signal orthogonality and device complexity in 5G NR systems.

Joint least square channel estimation matrix determines timing offset for combined users in a VAMOS receiver.

Parallel channel sensing detects multiple radio links simultaneously within an LTE frame structure.

Segment the slave clock into independent components to compensate for drift and offset without disrupting derived clock stability.

Adaptive timing advance granularity aligns uplink signals with subcarrier spacing to prevent inter-symbol interference in 5G networks.

A receiver channel estimator decodes asynchronous packets using sparse recovery across frequency, time, and spatial dimensions.

Designating one device as a primary unit integrates step counts from sub-devices, eliminating repetitive measurements and reducing memory usage.

A response device broadcasts a single FTM measurement frame containing identifier information and measurement parameters for multiple communications devices.

A radio communication device synchronizes transceiver signal operations via a processor to manage concurrent cellular and short-range transmissions.

A device synchronization method adjusts data sending cycles using preset time slice lengths to coordinate transmissions.

Communications device adapts uplink transmission to span multiple in-coverage periods based on required data length.

A multi-tier WLAN synchronizes beacon propagation via a predetermined schedule, eliminating neighbor scanning time and reducing client power consumption.

A user equipment receives selection information from a centralized unit to determine a suitable distributed unit device.

Nodes use velocity data to pre-compensate frequency shifts, preserving receive sensitivity in dynamic networks.

Wireless stations calculate turn-around calibration factors using fine timing measurement and non-Fine Timing Measurement round-trip time differences.

Indoor unit selects a reference frequency to synchronize carrier frequencies across multiple outdoor units in MIMO microwave systems.

Segmenting synchronization signal blocks across multiple sub-carriers reduces initial access delay and interference in high-density wireless networks.

A base station transmits channel preservation signals to secure unlicensed spectrum access for wireless communication.

Receive window timing modules switch between active and inactive intervals to reduce power consumption while maintaining reliable signal detection.

Preconfigured sidelink coordination groups enable user equipment to transition between positioning synchronization sources without service interruption.

Separate timing advance groups handle unlicensed cell synchronization to reduce primary cell load and resolve carrier aggregation complexity.

A mobile device exchanges status reports with a target node using existing RRC reconfiguration messages during handover.

A robot cleaner captures device images for AI identification, providing intuitive map-based positioning without complex infrastructure changes.

Transparent wireless forwarding of identity and credential values authenticates device-side translator functions in 5G networks.

Synchronized group switching enables inter-group communication in Wi-Fi Direct networks without requiring multiple MAC interfaces.

A user equipment activates a PUCCH secondary cell using a command that requires valid timing advance information.

A base station configures separate short transmission time intervals for downlink and uplink signals to manage distinct timing parameters.

A dedicated synchronization channel transmits timing frames to align wireless device clocks.

A network node creates a primary synchronization signal and multiple secondary synchronization signals to define hierarchical cell identifiers.

A wireless communication method selects specific positioning reference signal identifiers to optimize resource utilization.

Master devices detect misaligned round start times between co-located body area networks and synchronize timing to prevent transmission collisions.

A radio device detects carrier frequency offset in digital signals using a dedicated detector and controller to adjust local oscillator frequencies.

Network device signals second synchronization signal block resources via first physical broadcast channel information to streamline terminal detection.

A dual central node star topology network balances workload across active and standby nodes to ensure continuous operation.