Synchronisation Arrangement TRIZ Cases

Segmenting synchronization into distributed time domains eliminates external master clock dependencies, reducing resource consumption and enhancing scalability.

Preconfigured uplink resources allow idle terminals to transmit data using timing advance validity checks, reducing battery consumption.

Cellular network antennas broadcast outbound signals that communication devices passively receive to align internal frequency and time parameters.

Time-shifted processing windows resolve round-trip delay contradictions for NB-IoT random access.

Target logical ports acquire data packet measurement information and transmit it to a central control point for processing.

A timing advance command embedded in a random access response message enables immediate downlink data delivery without additional signaling steps.

Pre-configures an active cell set allowing user equipment pre-synchronization, reducing inter-cell mobility latency and interruption time in dense 5G networks.

Electronic labels form a wireless mesh network to estimate positions in three-dimensional space, replacing infrastructure-heavy systems with lightweight nodes.

Embed timing values in data frames to measure terminal distance without wasting bandwidth on extraneous measurement packets.

A synchronization apparatus prioritizes incoming signals using embedded priority data to establish reliable timing references for user equipment.

A user equipment manages temporary and valid C-RNTIs during random access procedures to streamline identifier assignment.

Autonomous synchronization eliminates random access channel delays during handovers, maintaining service continuity in non-terrestrial networks.

Network coordinator calculates path delays to synchronize message transmission across wireless relay nodes.

A cell selection system predicts beam distortion using aircraft motion parameters to identify an optimal target base station for handover.

Access point resets contention window values to synchronize parameters with non-access stations and resolve uplink multi-user transmission inefficiencies.

An uplink controller coordinates trigger transmissions to synchronize stations across multiple basic service sets.

A terminal device determines a target delay compensation manner based on configuration messages from a network device.

A layered synchronization signal combines components using primary coefficients to enhance estimation capabilities.

A neural network detects random access preambles using training signals from connected terminal devices.

Calibration modules measure individual device latency to adjust control signals, resolving asynchronicity caused by varying network paths.

A synchronization pattern detector uses a two-dimensional array of cost function engines to calculate partial costs for incoming data bits.

Integrating parameter configuration across Node B and user equipment resolves synchronization inefficiencies in the high speed shared information channel.

Multiplex synchronization signal blocks with control resource sets in the frequency domain to form a single transmission block.

A GNSS receiver method extracts modulating signals and calculates noise indicators using prompt quadrature correlation of received and replica signal components.

A TDMA slot structure shifts transmission times based on minimum path delay values to prevent uplink burst collisions.

User equipment transmits PDN disconnect requests with stored identifiers to maintain network synchronization.

Two-stage PRACH frequency offset estimation using main and secondary peaks to determine initial compensation.

Receiving terminal detects synchronization signal within partial symbol duration to acquire timing reference for device-to-device communication.

A terminal determines paging-scheduling signaling messages via a correspondence with synchronization blocks to share beam characteristics.

Dynamic time slot alignment compensates for satellite propagation delays, ensuring reliable message exchange beyond standard ranges.

M2M devices process secondary superframe headers to receive dedicated ranging information, reducing power consumption during system information updates.

An NB-IoT modem resolves indoor propagation delays by detecting synchronization signals from macro cells to achieve accurate frequency and timing alignment.

A synchronization method uses alternating positive and negative impulse sequences to achieve high precision timing in ultra-wideband systems.

First apparatus reports cast type information to network entities, enabling efficient sidelink service provisioning and improving communication reliability.

A communication apparatus receives a Doppler parameter to determine time compensation for signals without local calculation.

Domain name servers synchronize global addresses across sub-systems to maintain service continuity during handovers.

User equipment initiates uplink data transmissions without establishing an RRC connection by restoring an inactive access stratum context.

Segmented detection filters candidates before delay estimation, reducing receiver complexity and noise enhancement in WiMAX systems.

Dynamic slot configuration enables UEs to monitor downlink signals during waiting periods, resolving throughput losses from large timing offsets.

A user equipment segments radio frequency chains to perform reference signal measurements while maintaining active communication links.

Immediate time counter updates using timing advance commands correct propagation delay errors for accurate synchronization.

A relay server compares medical device time information against UTC to determine offset presence.

Master station device establishes portable station synchronization and switches channels without control station intervention.

User equipment adjusts upconversion signal phase using pre-compensation frequency values to resolve Doppler shift distortion in non-terrestrial network links.

Timing configuration parameters define offset values to prevent collision between overlapping resources and maintain synchronization.

Time division multiplexing shares a single uplink connection among multiple downlink carriers, enabling independent scheduling and improving link budget.

Mobile wireless communication device reconfigures operational modes using extracted time indications from network control messages.

A correlator uses a polynomial function to estimate timing offset from correlation values for accurate timestamping.