Synchronisation Arrangement TRIZ Cases

User equipment sends Msg1 with C-RNTI to resolve difficulty determining successful random access.

A control device synchronizes dual-mode Bluetooth audio streams by determining latency values and applying delays to separate sound systems.

A two-phase method synchronizes vehicle device clocks using initial unencrypted exchange followed by encrypted authentication.

A terminal triggers a scheduling request to report timing advance values when uplink resources are unavailable.

Determines discovery reference signal transmission window duration based on subcarrier spacing and candidate positions.

Self-organizing networks configure beamforming patterns to separate adjacent service areas, resolving interference in dense private 5G deployments.

Embeds CPRI frame numbers and phases into Ethernet timestamps to restore timing relationships lost during protocol conversion.

A hybrid wired-wireless system uses OFDM modulation to create ubiquitous wireless coverage across selected areas.

Segmenting the random access response into separate control and data messages reduces resource overhead while maintaining reliable system access capability.

Adaptive timing advance validity rules reduce power consumption by avoiding unnecessary RRC-CONNECT transitions during idle state data transmission.

Terminal device determines target SSB index to identify optimal beam direction, resolving time-frequency resource waste during small data transmission.

Segmenting search spaces into common and UE-specific types prevents overlapping configurations that cause scheduling restrictions in unlicensed band systems.

Dynamic gamma values optimize resource element mapping to balance detection reliability against utilization efficiency.

A wireless device transmits narrowband signals carrying synchronization data after successful listen-before-talk checks.

A user apparatus control unit sets maximum receive timing difference values based on specific band combinations to handle dual connectivity signals.

A TSCTSF manages time synchronization error budgets across 5G network functions to coordinate UE timing requirements.

A temporary bandwidth part switching mechanism allows user equipment to transition between configured parts using pre-set timing criteria.

User equipment detects synchronization signal blocks across multiple numerologies to optimize initial access procedures.

Transmitting user equipment sends a notification with the old source address to maintain data packet association during D2D resource transitions.

User equipment reports received timing difference capabilities to a base station, reducing SCell activation delays and network power consumption.

Neighboring base stations transmit a common resynchronization signal via a shared channel to enable user equipment devices to combine signals.

Dynamic location-based system sets timer values based on actual node distances, eliminating unnecessary waiting times and improving network throughput.

A unified timing advance command structure synchronizes uplink transmissions across multiple transmit receive points using periodic signaling adjustments.

User equipment calculates detection time from a timing advance and reference signal to resolve distance-related synchronization errors.

A terminal selectively applies uplink synchronization commands based on preamble selection to manage timing alignment.

Power normalized crosscorrelation metric analysis reduces false alarms from spurious peaks under high noise and multipath conditions.

A method maps synchronization signal block indices to random access channel occasions using time extension parameters.

A terminal reports propagation delay differences between network cells to enable precise measurement configuration adjustments.

Devices adjust transmission window size based on detected network activity to balance power consumption and discovery timing.

A control device adjusts uplink transmission timing using terminal-specific advance values to synchronize signals at the base station.

A radio apparatus correlates signal data with stored synchronization sequences to identify valid peak subsets for timing determination.

Mobile devices relay timing data over out-of-band links to synchronize femtocell access points with macrocell base stations.

Spatially quasi co-located carriers share beam management information to configure reference signals across multiple component carriers.

Complex sequences in the synchronization signal produce a sharp correlation peak, shortening synchronization duration and reducing terminal power consumption.

A PCIe device parses time synchronization signals through a hardware interface to establish independent clock sources.

A precision output gate timestamps packets using a rubidium oscillator, eliminating millisecond timing errors from standard off-the-shelf processors.

Data profiles coordinate hub timing and allocate unique preamble codes to reduce packet interference and redundant transmission on shared satellite links.

A terminal device searches for synchronization signals and compares reception strength against a threshold to determine transmission.

Source base station provides uplink synchronization data to user equipment, eliminating random access delays during handovers.

Segmenting random access slots by beam direction resolves the contradiction between full cell coverage and accurate beam selection, reducing resource wastage.

A femtocell base station acquires time synchronization and location data to configure operational parameters automatically.

User equipment applies time alignment configurations based on beam and reference signals to enable small data transmission.

Carrier aggregation allocates synchronization and broadcast channels in specific anchor subbands for LTE-A user equipment.

Pre-configured mixed synchronization signal block burst sets reduce search complexity while enabling efficient beam sweeping across frequency bands.

Selective measurement of network-indicated synchronization signal blocks reduces terminal complexity while maintaining accurate 5G signal quality judgment.

Mapping a reference signal to a predetermined symbol resolves synchronization mismatch and interference between user equipment.

A wireless system divides transmission signals into sub-spectra to manage interference.

Terminal devices switch to target uplink bandwidth parts using physical random access channel resources to initiate synchronization.

Segmenting timing advance values by time domain resource sets improves alignment accuracy while reducing signaling overhead in sub-band full duplex scenarios.