Synchronisation Arrangement TRIZ Cases

Muted sub-frames allow secondary operators to reuse spectrum without macro interference, increasing capacity while managing coordination complexity.

A resource mapping scheme alters NPSS and NPBCH subframe assignments in NB-IoT TDD radio frames to differentiate cell modes.

A mesh network synchronizes time using Bluetooth Low Energy with devices switching between sleep and awake modes.

A neural network differentiates main and false peaks in autocorrelation signals to improve timing advance estimation accuracy.

A timing offset parameter adjusts uplink transmission slots based on numerology in non-terrestrial networks.

Base station allocates distinct subcarrier spacings and symbol lengths to terminal groups within a self-contained subframe structure.

A V2X UE selects synchronization signals by evaluating source priority levels to maintain accurate timing.

Messaging between MME and SGSN tracks user equipment location without paging, reducing signaling load on idle networks.

Base stations adjust downlink-uplink ratios via mute intervals, preventing capacity loss from synchronized shut-downs during traffic shifts.

A bandwidth switching method for user equipment that aligns activation with network configurations.

A base station entity extracts timing information from a neighboring node during a user equipment handover procedure to adjust its local clock reference.

Base stations transmit configurable subcarrier spacing via radio resource control messages to optimize initial access procedures across diverse frequency bands.

User equipment switches between network and external synchronization sources to maintain device-to-device communication links.

A user equipment transmits a random access preamble using a specific subcarrier structure and periodic transmission gaps.

A narrow band frame structure segments synchronization signals across multiple subframes to support legacy system compatibility.

Terminal receives two-step random access response in common search space to resolve base station identification ambiguity.

Dynamic PT-RS configuration adapts to MCS and carrier frequency, mitigating phase noise while minimizing signaling overhead.

Applying TRS-Info to configure non-periodic CSI-RS resources ensures consistent QCL parameters, resolving synchronization losses from low SSB density.

Terminal skips synchronization step during cell handover reestablishment by using pre-configured timing relationships, reducing service interruption duration.

A synchronization signal transceiving scheme generates multiple orthogonal signals for simultaneous directional transmission.

A communication device manages multiple uplink transmissions with distinct timing advances and switches identifiers to maintain alignment.

A UE transmits RLM capability to a base station, which configures suitable reference signals.

Configuring a subset of CSI-RS resources as discovery signal resource reduces radio overhead while maintaining measurement precision.

Missed RS TXOP indicators adapt RLM and RRM measurements to prevent false out-of-sync declarations caused by channel access blockages.

A vehicle communication node receives time information from a roadside unit to set its internal clock.

Dynamic slot configuration and Type B rate matching resolve time allocation constraints while maintaining multi-beam reliability.

Configuring user equipment operation states by channel priority reduces unnecessary resource preemptions and lowers latency.

Variable burst periods reduce timing estimate errors at high velocities while conserving network capacity and battery power compared to fixed-interval methods.

An access point compensates phase and time differences using crystal oscillator frequency offsets to enable synchronized data transmission.

Segmenting random access into parallel beam-specific operations reduces latency while maintaining accurate identifier recognition.

Dynamic uplink node selection distributes transmission load across macro and local nodes, reducing macro eNB burden and UE power consumption.

Co-located radio nodes share channel state information across frequency bands to reduce initial access delay and improve beamforming accuracy.

Coordinated silence periods allow neighboring base stations to acquire timing references without GPS, reducing interference and improving data rates.

A terminal control unit activates a specific secondary cell with a physical uplink control channel.

A reference cell selection mechanism manages timing alignment across dual connectivity cells in integrated access and backhaul networks.

A communication apparatus adjusts transmission periods based on calculated propagation delay to optimize data flow.

Separate timing advance configurations resolve ambiguity across multiple uplink carriers, improving synchronization without excessive signaling overhead.

Distinct transmission configurations for reference and target signals improve measurement precision while managing signaling overhead in 5G networks.