Synchronisation Arrangement TRIZ Cases

A multiplexer embeds GPS timestamps into sensor data streams to synchronize biological information from multiple transmitters.

Front-end SCH detection modules extract frequency errors from training sequences to synchronize GSM radio devices, eliminating FCCH steps and reducing latency.

Dynamic timing advance units adapt to subcarrier spacing, resolving synchronization precision issues across diverse wireless numerologies.

An NDPA protocol calculates round trip time via simultaneous uplink exchanges, resolving sequential measurement bottlenecks.

Physical layer transmits time-synchronization beacons at edge-of-field resolution increments to improve clock accuracy.

Nodes synchronize local clocks with GPS signals prior to network entry, eliminating communication delays caused by waiting for periodic master clock broadcasts.

Non-terrestrial network user equipment determines store and forward mode entry based on received time information to resolve processing complexity trade-offs.

Wireless local area network devices adjust timing synchronization function timers based on received Bluetooth synchronization pulses to align beacon intervals.

A broadcast isochronous group aggregates peripheral streams to reduce latency.

Sync signals synchronize LTE nodes in unlicensed bands, reducing backoff times and collisions while improving throughput.

Segmenting user equipment by timing advance validity allows synchronized devices to bypass guard times, reducing physical random access channel occupation.

A base station configures semi-persistent scheduling using integer numerators and denominators to represent non-integer millisecond periodicity values.

A user equipment detects system timing boundaries by performing cumulative correlations over non-overlapping intervals of repeated synchronization sequences.

A synchronization signal generator transmits phase-coherent reference signals wirelessly to antenna array transceivers.

Encrypting synchronization information within a Synchronization Signal Block enables secure time distribution across cellular networks.

Prioritizing cell-defining synchronization signal blocks reduces scanning time and handles network misconfigurations during initial acquisition.

Network nodes reuse existing synchronization signals for control information reception to minimize transmission overhead.

Non-periodic synchronization boundaries prevent alignment with fixed frame periods, reducing communication delays and improving channel access opportunities.

Modular initialization of positioning reference signal sequences reduces user equipment implementation complexity while maintaining orthogonality.

Delay-overlapping training symbols with data symbols in filter bank multi carrier systems eliminates separate time resources for synchronization.

A qualified wireless sensing system extracts time series channel information from multipath signals to detect motion.

Multiple management processors synchronize call processing databases to maintain service continuity during system obstructions.

Transmitting devices send an identification of a subset of code block groups to conserve transmission resources and minimize communication traffic.

A communication device detects sidelink identification using Demodulation Reference Signal templates.

Mapping a sidelink synchronization block to interlaced resource blocks satisfies occupied channel bandwidth requirements in unlicensed spectrum.

A self-organizing sensor node synchronizes radar array clocks using dual-speed signal channels, resolving positioning instability in large sparse arrays.

Extended short training field with multiple spreading sequence instances enhances channel estimation accuracy in wireless communication systems.

Network devices exchange request messages to coordinate synchronization signal block resources, reducing conflicts and improving utilization.

A mobile node forms an uplink signal using a cyclic prefix length selected by the base station based on measured delay spread.

Synchronous reception of paging message and data reduces transmission waiting latency in satellite communication systems.

Conjugate multiplication of channel state information eliminates random phase shifts to extract complete Doppler frequency shift data.

Determining timing advance via MAC CE fields enables layer 2 mobility transitions, reducing interruption time and signaling overhead during cell handovers.

A wireless communication device adjusts measurement gap timing to align with survival time constraints.

A synchronization raster indicator detects system information presence within specific frequency positions to reduce scanning overhead.

Mobile terminal encodes user data by selecting transmission timing within uplink random access channels.

User equipment synchronizes initial ranging codes with base station uplink timing using adjacent device measurements.

Terminal device determines target random access resources based on quasi co-located information of synchronization signal blocks.

A TSF rollover flag in a beacon frame carries counter bits to detect timer transitions.

A data processing system synchronizes with CPRI frames to determine operational parameters without active network participation.

Network equipment instructs user equipment to transmit uplink timing reference signals only when data is available for transmission.

Segmenting PTRS-DMRS association fields across resource groups improves uplink reliability while containing downlink control information complexity.

Structured frame allocation with synchronized timeslots prevents network congestion while maintaining reliable communication coverage in distributed systems.

Master device coordinates timing signals across wireless slave sensors, resolving wired connection complexity while ensuring synchronized data processing.

A user apparatus receiver captures external synchronization signals to execute radio frame and frequency synchronization for D2D communication.

Control unit selects specific timing alignment methods to resolve conflicts between adaptability and device complexity in integrated access backhaul networks.

A multi-node base station adds a leaf node via a second CPRI lane to maintain synchronization without disrupting active traffic.

Exchanging Bluetooth clock data via NFC allows a second transceiver to predict target scanning frequencies, reducing pairing times to 0.64 seconds.

Merging cell and reference signal indices into unified entries reduces signaling overhead while maintaining essential network information.