Synchronisation Arrangement TRIZ Cases

Ambient FM RDS signals synchronize independent Wi-Fi nodes, reducing channel contention and improving throughput without explicit inter-device communication.

Nested receiver detection buffers overlapping data packets to prevent capture effects, reducing re-transmissions in shared channel environments.

A NAN terminal adjusts a backoff counter to schedule service discovery frame transmission after sync beacon frames.

A vehicle processing unit assesses local time offset errors and transmits messages to a wireless network for updated time information.

Separating baseband units from shared network management subsystems resolves the contradiction between device complexity and system reliability.

User equipment performs early uplink synchronization with a target cell to acquire timing advance values before receiving a handover command.

A visual fog computing system distributes processing tasks between edge devices and cloud resources to reduce latency.

A network node grants resources identified by relative identifiers mapped to synchronization references.

A wireless mesh controller sends rapid synchronization pulses to detect lost sleep timing information from network nodes.

Segmenting the IAB node into distinct DU and MT entities aligns unidirectional operations, resolving transmission direction conflicts.

Terminal device assesses processing delay against start position to transmit valid data or null data, resolving uncertainty in unlicensed spectrum access.

Wireless nodes bridge separate technological systems to resolve communicative interoperability gaps in retail and assisted living environments.

RRC messages transmit carrier type information to user equipment, resolving handover reliability issues caused by unknown neighbor eNB parameters.

A wireless device synchronizes with a network node using a single differentially encoded synchronization sequence for time and frequency offset estimation.

A sidelink synchronization signal block generates primary and secondary signals with specific symbol configurations for device communication.

A wireless forwarding node adjusts transmit and receive timing references to maintain network synchronization across multiple hops.

Synchronizing channel access via periodic quiet intervals reduces interference and congestion in shared wireless networks.

A base station acquires clock signals from an antenna line device through the AISG interface.

Network device determines synchronization signal block timing based on frequency range and subcarrier spacing.

Standardized X3 interfaces connect distributed antenna nodes to resolve interface complexity while enabling advanced MIMO techniques and channel estimation.

Timestamp packet exchange calculates clock offsets between Bluetooth devices, resolving synchronization gaps to enable sub-millisecond action timing.

A first node selects a synchronization reference for positioning signals based on candidate signal measurements.

Dynamic adjustment of windowing functions and filter coefficients optimizes spectral containment while minimizing transmission latency in wireless systems.

Synchronizing an assisting LTE timeline with Wi-Fi reduces interference and boosts data throughput.

Scheduling trigger frames with carrier sense fields prevents in-device coexistence interference during multi-link access.

Release PUCCH and SRS when secondary timing advance timers expire to prevent uplink interference.

User terminals report synchronization status to network nodes, correcting time and frequency offsets between overlapping cells for reliable CoMP transmission.

A location processing unit analyzes uplink RF signal strengths to identify the strongest antenna and determine client device positions.

Concentrating pilot signal power at one frequency allows low-cost devices with limited computing resources to register in high-bandwidth networks.

Pre-configured conditional information guides terminal handovers, resolving contention-free random access resource wastage during high-speed movement.

DRX configuration parameters mitigate in-device co-existence interference between LTE and WLAN transceivers by scheduling periodic active and sleep states.

A transmitting apparatus generates packets with a base header indicating packet type and payload count to map data efficiently.

Segmented synchronization signal blocks with unique indices enable user equipment to align with base station beams, reducing synchronization complexity.

Network device configures a reduced synchronization signal block set for user equipment in connected state to streamline mobility management.

Assigning unique transmission time slots to slave nodes eliminates active request overhead and reduces power consumption.

Signaling timing offset via SRS configuration and MAC CE resolves measurement precision issues in cross-link interference mitigation.

A user equipment detects a primary synchronization signal on an initial frequency raster to guide subsequent secondary signal searches.

Storing ever-camped and ever-detected cell data reduces search and decoding times during power cycles or interface switching.

A receiving MCData UE consolidates delivery and read status into one notification using a timer mechanism.

High priority listen-before-talk parameters protect sidelink synchronization signals from interference in shared bands.

Mobile devices obtain timing advance and channel quality from target base stations to execute handovers without random access channels, reducing congestion.

Higher density demodulation reference signals outside synchronization bandwidth improve channel estimation accuracy while reducing resource overhead.

Base station transmits a phase synchronization reference signal modulated with an uplink channel estimate to enable user equipment measurement.

Network node assigns group-specific PRACH configurations to wireless devices based on detected radio frequency offsets.

A base station selects subcarrier spacing and configures beam transmitting time numbers to establish precise synchronization signals.

Base station replaces reserved downlink control message bits with timing advance indication to reduce two-step random access channel latency.

A terminal selects control resource sets based on priority and spatial reception parameters to monitor physical downlink control channels efficiently.

A network device signals user equipment about synchronization signal block presence within specific frequency ranges to guide search operations.

Configures precise monitoring windows for system information grants and paging messages in wireless networks.