Synchronisation Arrangement TRIZ Cases

Monitoring synchronization on both device-to-device and device-to-network links enables adaptive adjustments that reduce uncontrolled interference.

A mobile node adjusts transmission time and frequency based on current velocity and position to compensate for propagation delays.

A terminal measures adjacent cells across WCDMA and TD-SCDMA modes using dormant idle sub-frames for data reception.

A user equipment aligns uplink physical resource blocks with synchronization signal blocks to enable flexible resource formation in new radio carriers.

Base stations provide candidate beam sets to user equipment, reducing power consumption and resource usage by eliminating repeated beam reporting procedures.

A network entity calculates peak-to-peak arrival time jitter values to detect transmission resynchronization events.

A transmission terminal detects events and transmits timestamps to a server for processing.

User equipment calculates phase differences between reference signals using an anchor tone for sidelink positioning.

Terminal coordinates uplink timing via a synchronous connection to adjust synchronization, avoiding random access overhead and maintaining connectivity.

A fine timing measurement session leverages trigger fields to establish a unified link for time synchronization and location estimation.

Estimating propagation delay via local motion sensors updates the internal clock, reducing uplink exchanges and conserving power during synchronization.

User equipment measures cell signal quality using synchronization block signals to resolve high complexity and power consumption in inactive states.

A terminal transmits a random access channel during a predetermined channel occupancy time within a fixed frame period structure.

A terminal configures SS/PBCH block timing using segmented SMTC lists to derive accurate measurement results in non-terrestrial networks.

Non-terrestrial network pre-paging configuration enables user equipment to detect paging messages using synchronization signal blocks.

A vehicle UE pauses transmission during pedestrian message intervals to conserve battery power.

Detecting beacon timing allows the processing system to align data communication windows, preventing transmission misalignment during cluster transitions.

Auxiliary synchronization signal transmits cell identity and timing data, reducing access latency in dense small cell deployments.

Segmented reference signals and speed-based reporting conditions reduce unnecessary handovers and signaling congestion in mixed fixed and mobile networks.

Segmenting random access channel resources by measurement thresholds reduces collision risks in contention-based wireless access.

A terminal determines random access channel preamble transmission opportunities using an expanded synchronization signal block index range.

Synchronization signals coordinate LAA-LTE data exchanges in unlicensed bands, reducing interference and improving bandwidth utilization.

A wireless transmitter uses rotational polarization to superimpose correlated codes on carrier waves for reliable synchronization.

Base stations select scheduling carriers to add LAA secondary cells to timing groups, resolving uplink latency from missing downlink references.

Secondary synchronization signals reduce persistent misdetections from overlapping transmissions by segmenting sequences into distinct components.

Dynamic modulation selection adapts transmission parameters to channel conditions, reducing signaling overhead and latency in two-step random access procedures.

A timing offset mechanism aligns uplink and downlink transmissions in wireless systems.

A physical layer signal encodes network synchronization and service information for distributed wireless terminals.

Segmented sub-band extraction reduces grid search complexity while maintaining synchronization accuracy.

Terminals determine detection slots via modular arithmetic on SSB indexes to reduce blind detection frequency and energy consumption.

User equipment selects a reception beam based on angle of arrival differences to resolve beam conflicts and improve signal reliability.

Beacons adjust transmission timing to send messages in close temporal proximity, enabling gateways to detect all nearby signals within milliseconds.

Wireless personal area network devices synchronize local clocks using timestamps embedded in beacon payloads.

A terminal device sends first and second indication information to a source network device upon successful or failed connection establishment with a target network device.

Additional RACH reference slots distribute communications across time, increasing capacity while managing UE power consumption.

A propagation delay compensation service generates time synchronization error budgets based on quality of service identifiers for network slices.

Timestamps embedded in protocol layers manage delay and jitter, resolving 5G QoS framework limitations for industrial applications.

Adjustable guard periods in TDD radio frames resolve interference and efficiency trade-offs across different coverage ranges.

Commercial user equipment performs idle mode measurements configured by the network to collect performance data.

Devices exchange capability information through fine timing measurement frames to resolve parameter mismatches that degrade throughput in dense networks.

Mobile devices detect base stations using phase shifted secondary synchronization codes to identify the strongest signal source.

Tunnels between WAN edge devices enable high availability and extensibility across transport networks without requiring direct Layer 2 connectivity.

Self-organizing ad-hoc TDMA networks eliminate fixed infrastructure dependencies while maintaining precise synchronization among mobile units.

Chaotic waveform synchronization uses coherent and non-coherent processing to estimate initial time and frequency offsets.

Offsets propagation latency errors in reference time information to enhance time synchronization accuracy for URLLC services.

Wireless side-haul distributes macro base station timing to small cells, eliminating external GPS antenna installation in multi-tenant buildings.

A UWB transceiver selects physical-layer signal configurations based on application requirements to transmit ranging signals.

User equipment selects D2D synchronization signal transmission modes based on base station instructions or reference signal received power thresholds.

A control plane entity selects group access and mobility management function entities to establish multicast sessions for user equipment groups.

User equipment synchronizes uplink signaling using timing advance values derived from downlink reference timing.