Synchronisation Arrangement TRIZ Cases

Clock-synchronized ultrasonic signals calculate device distance while cryptographic keys prevent false proximity detection without extra hardware.

Segmenting random access channels by carrier type resolves synchronization accuracy versus device complexity trade-offs in multicarrier systems.

A mobile station apparatus calculates transmission timing for a pre-selected base station to enable rapid reconnection.

A base station adjusts downlink and uplink timing using user equipment feedback to maintain synchronization with a reference station.

A base station maps relay control signals into a common OFDM symbol range using a unified transmission format.

Terminal device performs synchronization signal block measurements during non-active periods based on specific network conditions.

A user equipment identifies target cell IDs by correlating synchronization sequences with received frame data to detect primary and secondary signal peaks.

A satellite receiver module converts timing information into synchronization protocol messages for transfer over a data interface.

Network device sends scheduling information to trigger targeted retransmission, reducing access delay without increasing signaling overhead.

User device identifies second cell identity using synchronization state and frequency information from a first base station.

A small cell queries stored signaling radio bearer status using a dedicated synchronization signal preamble to establish an RRC connection.

A user equipment receives sidelink synchronization priority information from a base station to select an appropriate reference.

A network device generates synchronization signals using correlated sequence pairs to maintain autocorrelation properties under carrier frequency offsets.

Upstream device translates beacon receive times from unsynchronized sensors into an aggregator clock domain, resolving measurement errors caused by clock drift.

Sets LTE TDD frame start time after WiMAX frames and removes UpPTS slots to synchronize systems without mutual interference.

A non-transparent inband relay node manages random access resources and relay reference signals to establish uplink timing synchronization.

Encoding method uses intermediate variables to generate secondary synchronization channel codewords with consistent short code magnitude and small distance.

A device-to-device transmission method schedules user equipment on secondary carrier resources to reduce primary cell load.

Shared physical uplink shared channel resources reduce user equipment power consumption by eliminating dedicated signaling overhead during idle mode.

Clock generator derives digital clock from divided carrier signal, shifting harmonic interference to filterable frequencies and improving RF reception.

Mapping synchronization signals to symbols with different resource structures reduces user equipment detection burden while maintaining signal precision.

A cell location component estimates base station positions using timing advance data from connected devices.

Predicting periodic step transitions from relative clock drift enables accurate distance detection with reduced signaling overhead and energy consumption.

A terminal device detects SSB and PDCCH signals within a CORESET of the RMSI.

A terminal performs blind detection on synchronization signals to determine subcarrier spacing across multiple frequency bands.

Narrowband listen-before-talk procedures coordinate channel access to reduce interference and collisions during ultra-wideband communications.

A rate matching device maps user data between Radio Equipment Control and Radio Equipment interfaces.

A two-message timing exchange method determines clock frequency offset between devices without requiring distance knowledge.

Interference suppression filter weights adjust based on timing hypotheses to improve symbol timing accuracy despite multi-path interference.

A hierarchical uplink synchronization method uses coarse and fine beam random access preambles for timing advance adjustments.

Terminals evaluate GNSS signal strength and network configuration to select synchronization sources, resolving ambiguity when multiple sources are available.

User equipment determines effective time for updated system information to prevent data transmission conflicts during satellite network updates.

A signal transmission method determines location based on priority and uplink-downlink patterns.

A thin control channel structure enables synchronous multiplexing of data transmissions with varying latency targets.

A positioning server calculates relative reference signal time differences to determine mobile terminal coordinates.

Dynamic time slot adjustment shifts WPAN transmissions around WWAN scan intervals, preventing interference while maintaining continuous data flow.

A sidelink node applies timing advance offsets to align positioning reference signal receptions from multiple nodes within a single cyclic prefix.

Wireless devices process synchronization blocks to acquire configuration information via RF retuning.

A mobile device calculates timing advance using two-way signal measurements, resolving latency-induced collisions in TDMA systems.

A network node applies a time offset to reference signal scheduling blocks in wireless cells.

Independent timing advance assignment per beam resolves asynchronous interference by aligning signals within the cyclic prefix window.

Bluetooth host device combines left and right channel voice data to generate a stereo audio effect for remote communication.

A base station apparatus coordinates data transmission between overlapping coverage areas to improve frequency band usage efficiency.

Autonomous timing adjustments resolve synchronization unpredictability in decentralized peer-to-peer networks.

A hyper accuracy location platform uses base stations as intermediaries to process reference data and generate precise position corrections for user devices.

Wireless access points identify neighboring unlicensed radios and synchronize clocks to coordinate transmissions.

A vehicle master apparatus sorts commands into dedicated buffer memories and transmits them simultaneously via multiple ports.

Segmenting control data into time-varying and time-invariant parts reduces fiber link data rates, enabling scalable connection of numerous remote units.

User equipment dynamically manages guard times via base station signaling to optimize uplink and downlink signal separation.