Synchronisation Arrangement TRIZ Cases

Multiplexing sector and cell codes on the synchronization channel reduces processing time and memory requirements during cell search.

Base station configures signaling indicating STRS and PSS/SSS presence, enabling UE to detect carriers while reducing interference between neighboring cells.

Multi-cell notification zone single frequency network reduces resource wastage from beam sweeping in discontinuous reception modes.

A system information change indication mechanism notifies user equipment of specific updated blocks, reducing power consumption from redundant data acquisition.

Enhanced multi-link single radio stations receive data frames within restricted target wake time service periods without initial control frames.

A user equipment transmits a synchronization signal block request to a base station and detects the response within a defined time interval.

A wireless device acquires synchronization timing using discovery signals transmitted in specific subframes.

A source device selects a universal queue size based on sink capabilities to synchronize media packet processing across wireless display devices.

A synchronization device generates timing pulses using network packets and clock signals to maintain precision.

Classifies synchronization symbol blocks by delay relative to expected reception time, separating line of sight paths from non-line of sight interference.

A primary cell group transmits a Master Information Block on an unlicensed carrier using channel detection.

A terminal device sends selection information to a control plane access network device to establish a radio bearer for data transmission.

A base station controller coordinates burst signal and discovery reference transmission within shared frequency bands.

Pico-nodes adjust transmission timing and frequency based on macro-node measurements, eliminating interference without requiring new UE functionality.

Sending device transmits target information on a specific resource to convey operational status, reducing signaling overheads and scheduling latency.

Dynamic gap configuration enables ProSe synchronization on non-serving carriers, reducing interruption time during device-to-device operations.

A user equipment generates a phase-tracking reference signal using a demodulation reference sequence mapped to a specific frequency position.

An assisting radio access technology synchronizes timelines with a primary wireless link to enhance communication reliability.

Server staggers client data transmission timing based on wireless network information to prevent network overload and maintain high downlink data rates.

Periodic synchronization signals enable device-to-device communication in unlicensed bands while avoiding interference with legacy devices.

A cloud cell base station buffers mobile data at the old master node before tunnel activation.

Periodic beacon frames with segmented information elements reduce power consumption while maintaining network responsiveness.

A controller modifies clock signals using integral and fractional adjustments to synchronize timing across devices.

Segmenting timing signals from identity data allows out-of-coverage devices to synchronize without revealing their location.

Wireless device configures measurement gaps based on synchronization signal burst periods to detect neighboring cells.

A user equipment declares radio link failure based on signal metrics to initiate handover.

Passive command tags transmit instruction signals to simplify complex user interfaces and coordinate connected appliances.

User equipment calculates timing advance values based on altitude to align random access channel preamble transmissions with satellite base stations.

A terminal determines the time-frequency structure of a downlink reference signal to optimize resource usage in wireless communication systems.

A RAN Intelligent Controller reconfigures subframe allocations across cell clusters to match real-time traffic demands.

A semiconductor device dynamically adjusts internal gate states based on measured latency times to optimize communication scheduling.

A wireless device detects synchronization signals using adaptive two-stage correlation to reduce computational load.

A terminal receives unlicensed band information via a licensed channel to determine data signal reception timing.

A New Radio-Narrowband Primary Synchronization Signal uses 14 Zadoff-Chu sequences mapped across all OFDM symbols to establish time and frequency synchronization.

A terminal device receives first information from a network to determine transmission time-delay compensation parameters.

A session management network element synchronizes data channels across communication systems to maintain consistent information.

TDOA reference signals with non-unity frequency reuse improve neighbor cell hearability for accurate user equipment positioning.

Source base station assigns random access channel preamble as temporary identifier, reducing handover interruption time and contention issues.

A unified identity transfers between devices via short-range connections to maintain continuous service content.

A scheduling node selects spatial quasi co-location source signals from multiple candidates to determine optimal receive or transmit beams for user equipment.

Segmenting the fronthaul interface into control and user planes resolves transmission delay bottlenecks while maintaining high digital bit string rates.

Self-synchronized TDMA time bases resolve non-deterministic transmission issues in vehicle-to-vehicle collision prevention systems.

A mobile terminal receives HS-SCCH signals from source and destination base stations simultaneously to enable continuous HSDPA communication.

A user equipment dynamically switches active scheduling configurations based on measured jitter to maintain transmission timing.

Configurable TA steps resolve 260 ns synchronization errors by adapting timing precision to specific propagation delay conditions.

Segmenting the system into a simple wearable accessory and a standard phone resolves manufacturing complexity while maintaining portability.

A media distribution device configures private wireless networks to transmit audio data with minimal latency.

Dynamic frequency hopping adjusts bandwidth part resource block offsets to manage interference and improve reliability in NR-U Light communications.

Parent nodes use scheduled activation and packet aggregation to reduce power consumption in tree topology networks.