Synchronisation Arrangement TRIZ Cases

A wireless terminal selects a detection sub-segment from a divided preamble segment and adjusts transmission timing using acquired timing advance values.

Automated evaluation device identifies defective ADS-B base stations using arrival time analysis.

Explicit downlink control parameters in system information blocks resolve coverage and complexity trade-offs by enabling optimized beamforming.

A time difference determination method calculates timing offsets using advance parameters to align downlink transmission.

A first device acquires ingress window and transmission delay information to determine egress window parameters for service data packets.

Adjusts carrier-sensing end timing in time slots to maintain accurate time synchronization across wireless networks.

Centralized controller manages RF links via ephemeris data to mitigate interference and maintain connectivity across dynamic satellite orbits.

A wireless device configures a single timing advance value for an uplink carrier group in non-terrestrial networks.

Segmenting four SSBs and RMSI across two slots reduces LBT operations, lowering power consumption and delay.

A receiver calculates time differences between transmitter and receiver clocks using separate delay measurements.

Segmenting synchronization into individual peer-links resolves IEEE 802.11s ambiguity during mesh initiation or merging by allowing flexible profiles.

An appointed network element determines and distributes a unified scheduling transmission time interval to lower layer nodes.

Dynamic PBCH puncturing patterns adapt to synchronization raster locations, resolving incomplete resource utilization in 3 MHz and 5 MHz channels.

Companion devices share network-state information to eliminate scanning delays and reduce power consumption during WiFi association.

A 5G satellite gateway uses buffer and pre-compensation modules to align uplink and downlink service frames.

A relay user equipment transmits synchronization signals to extend network reach beyond direct coverage limits.

A mobile station transmits scheduling requests independently of uplink data to maintain base station synchronization.

A split synchronization signal configuration reduces device complexity by accommodating varying subcarrier spacings in wireless systems.

N timing phase adjusters process baseband signals to enable fast phase synchronization, reducing overheads from excessive random signals.

Segmenting radio resource control messages into independent groups reduces device complexity while maintaining system capacity and coverage.

A cell update message carries a reconfiguration status indicator to confirm user equipment configuration completion.

A user equipment calculates a signal-to-interference-plus-noise ratio measurement period using channel and interference measurement resources.

A testing procedure evaluates pre-configured measurement gap activation and deactivation delays within user equipment.

Base station selects multiple synchronization signal sequences to generate a secondary synchronization channel for mobile station detection.

A millimeter wave base station allocates radio sub-blocks using two-dimensional rectangular bin packing to manage multiple mobile stations.

A transmission node multiplexes mask bits via hardware registers to synchronize control signals with CPRI frames.

Receiving signals indicating symbol reservation status to perform uplink transmissions or downlink receptions in wireless communication systems.

Local grouping of Bluetooth devices enables simultaneous audio transmission, resolving single-device connection limits.

A monitoring system detects link latency between SFN master stations and antennas to modify network behavior.

Base station filters RRU channels by receiving power to select the strongest link, preventing synchronization failures from frequent switching.

Segmenting PCID space by SSB index resolves the contradiction between device complexity and beam identification accuracy in satellite systems.

Cyclically shifting mini-resource blocks minimizes adjacent channel interference while maintaining diversity gain despite synchronization errors.

Gradual error accumulation units insert PTP time offsets without causing synchronization deviations in O-RAN testing.

A base station configures scheduling request resources to enable dynamic timing advance adjustments in wireless terminals.

An AVN receives RTC time information messages over IP to calculate and set synchronous time across vehicle devices.

Mobile stations select specific Zadoff-Chu sequence indexes to minimize peak-to-average power ratio, reducing signal distortion during uplink transmission.

Downlink synchronization on the target cell before L1/L2/L3 processing reduces data interruption time during handover.

Middleware configures network nodes to dynamically determine nodal topology and establish peer-to-peer communication links.

Timestamp exchange resolves IEEE 802.1AS inaccuracies caused by variable multi-hop delays in industrial factory synchronization.

A mobile core network with distributed data services coordinates context information across sites to reduce communication latency.

Flexible subframe offsets resolve TDD NB-IoT and LTE resource misalignment, enabling single-receiver compatibility.

Separate slot formats align downlink and uplink timings on distinct links, reducing interference between base station connections.

A satellite timing system assigns downlink to uplink offsets for user terminals.

A device updates antenna weights based on detected physical orientation changes to optimize signal directionality.

User equipment reports slot offset derived from Rx-Tx time difference to determine time domain value for non-terrestrial network communication.

Cancelation tones and cyclic extensions mitigate timing mismatch interference, restoring orthogonality and improving reliability.

A user equipment selects a physical cell identifier from candidate sets to establish timing references for synchronization signal block measurements.

Satellites transmit channel state information reference signals over dedicated resources to enable user terminals to estimate channel quality and select optimal beams.

Femto base stations scan macro reference signals to configure downlink transmission timing, resolving synchronization conflicts caused by blocked GPS reception.