Synchronisation Arrangement TRIZ Cases

Algorithmic calibration of signal propagation times resolves synchronization inaccuracies in distributed multi-sensor object detection systems.

Feedback mechanisms correct UTP time delay variations within 100 nsec to maintain LTE transmission quality.

A terminal acquires time differences between transmission and reception timings to manage propagation delays.

Segmenting error handling between MAC and RRC layers reduces service interruptions and battery power consumption during secondary cell failures.

Prioritizing LTE and NR synchronization signals over sidelink signals resolves resource efficiency bottlenecks in multi-protocol wireless networks.

Configures uplink timing advance loops by synchronizing to downlink beams and applying gradual adjustments during mobility events.

A narrowband physical downlink control channel maps to resource blocks within 180 kHz bandwidth.

A network device uses a first medium access control entity to pass control frames to a second entity operating in a higher non-contiguous frequency band.

A multi-TRP uplink scheme segments timing advance values per transmission point and extends the Rel-16 codebook in the time dimension using orthogonal DFT bases.

Base station transmits segmented synchronization indication information to terminals for accurate time-frequency resource position determination.

Pre-calculated timing adjustments enable immediate beam switching, reducing packet transmission delay and restoring millimeter wave connectivity.

A user equipment manages uplink synchronization using a single time alignment timer across RRC states.

Sensors use angle of arrival detection to calculate position while synchronized wake-up modes reduce battery consumption.

Segmenting the spectrum into independently scheduled sub-bands resolves latency-versus-versatility contradictions in LTE random access.

A coexistence coordinator synchronizes WiFi and IoT radio transmissions to enable seamless data exchange within a single access point.

Downlink timing measurements enable user equipment to adjust uplink transmit timing, eliminating uplink synchronization delays during handovers.

A Wi-Fi Direct mesh network streams live audio across multiple hops using time synchronization and packet puncturing.

A transmitting UE segments an S-SSB period into multiple timing windows containing several transmission occasions to support sidelink synchronization.

A user equipment maintains a configured grant small data transmission timer after resetting its medium access control entity.

A terminal detects consistent uplink listen-before-talk failures during dual active protocol stack handovers to suspend source base station data.

A management terminal corrects individual time pairs using hardware and software configuration data to ensure accurate synchronization across diverse sensor terminals.

Distributed agents sample packet timestamps to compute end-to-end latency metrics across designated network slices.

Segments PRACH preambles into short sequences to improve delay estimation accuracy without requiring large DFTs in ASIC implementations.

Microphone feedback enables dynamic jitter buffer sizing to resolve the trade-off between audio quality and latency in screen mirroring.

Segmented VHT fields resolve transmission stability issues in new frequency bands while maintaining high throughput.

A C-V2X receiver blanks interfering IEEE 802.11p preamble signals using channel estimation to isolate the target data stream.

A mobile station device detects downlink synchronization errors and transmits status information via a random access channel to the base station.

A wireless device schedules a gap time interval between communication signaling and synchronization signaling.

Primary cell configuration parameters enable low-complexity sub-THz link activation, eliminating high-power multi-dimensional searches.

An access point determines its location and timing using forward link signals from neighboring macro access points.

Communication control circuitry adjusts connection setup signal timing based on separation distance to ensure reliable reception within identified windows.

A control apparatus adjusts communication cycle lengths by shortening time segments when data sizes are small.

A secondary cell configuration method uses physical cell identity to manage activation signals without explicit device identifiers.

A network node configures measurement gaps to enable device-to-device synchronization on non-serving carrier frequencies.

A wireless terminal adjusts transmission timing to concentrate data at relay nodes, suppressing communication delays in on-vehicle networks.

User equipment measures time offsets between macro and femto cell signals, enabling the base station to synchronize indoor small cells without GPS receivers.

Determining timing offsets enables a victim device to cancel inter-link interference, resolving misalignment issues that degrade transmission reliability.

A multi-beam radio link monitoring method evaluates downlink quality across serving beams to determine synchronization status for the user equipment.

Satellite-derived synchronization with base station offset compensation maintains V2X timing accuracy in out-of-coverage areas.

A base station provides timing advance options to a user equipment for direct grant-free uplink data transmissions.

A user equipment selects a synchronization signal block using an antenna branch specific reference signal received power threshold.

User equipment transmits capability messages to receive multiple downlink channels via a shared communication beam.

Base station apparatus configures synchronization signal block transmission windows to enable precise beamforming across multiple beams.

A timing advance index maps to specific uplink transmission values via MAC signaling.

Configuring multiple control and measurement reference signal sets for one frequency domain bandwidth resolves resource collisions between multiple TRPs.

Sequential antenna beam broadcasting resolves millimeter wave interference and directionality issues, enabling reliable vehicle positioning accuracy.

User equipment measures sidelink channel state via reference signals and reports data to resolve quality of service management bottlenecks.

Maps sidelink control information across multiple MIMO layers to boost spectral efficiency while managing layer mapping complexity.