Synchronisation Information Channels TRIZ Cases

A synchronous differential signaling protocol enables high-bandwidth data transfer over wired connections between master and slave devices.

Preliminary resampling aligns sensor and processor sample rates, reducing latency and complexity in active noise cancellation systems.

Timing analyzer extracts Ethernet clock relationships to generate traceable PRC signals, eliminating specialized phase locking circuitry.

A protocol conversion apparatus translates synchronization data between Ethernet and CPRI formats.

Slave devices copy a primary clock rate to secondary units, eliminating synchronization errors from independent time bases.

Delay-matched interconnects and phase interpolators synchronize clock edges across multiple dies, eliminating deep FIFO pipelines that cause latency.

An integration node consolidates data from multiple sending nodes into a single message stream for efficient network communication.

A time synchronization system transmits pulse signals across two-core bidirectional optical fibers using distinct wavelengths for forward and backward paths.

A memory device samples signaling at multiple reference points to determine candidate logic sequences.

Two-wire intercom system detects reverse cable connections using synchronization patterns to enable automatic data demodulation.

Single-channel bi-directional links provide fault tolerance without redundant cabling complexity.

A guided wave communication system uses couplers to launch and extract electromagnetic signals at millimeter-wave frequencies.

Active recessive level driving on CAN transceivers enhances signal integrity during high-speed data transmission.

A half-duplex wired link uses a frame structure to transfer clock, payload, and control data across two wires with minimal overhead.

A shared clock source synchronizes multiple dies in a wafer-level package to ensure stable data transfer across the interconnect network.

Pre-measured radio delays eliminate initial synchronization checks, reducing data analysis time while maintaining measurement precision.

Dynamic phase adjustment eliminates message dropout errors during isochronous packet transport without introducing jitter buffer delay.

Autocorrelation between initial and terminal sequences enables pre-equalization phase tracking that corrects oscillator noise for accurate channel estimation.

A receiving device adjusts its crystal oscillator frequency based on UDP packet cache volume to maintain clock synchronization with a transmitter.

Master device generates test sequences at varying clock frequencies to detect slave operating speed capabilities.

Reference clock source generates calibration signals recorded by dedicated units to correct local clock deviations.

Clock-edge modulation merges clock, data, and control signals into one serial channel to reduce power consumption and hardware complexity.

A third time domain detects periodic triggers to acquire timestamps for synchronizing disparate chip domains.

Dynamic reference selection adjusts phase alignment accuracy by inverting detection signals based on mode information to handle varying relationships.

A clock distribution apparatus calculates offset differences between signals to compensate phase jumps during source switching.

Segmented streaming synchronizes digital content across multiple VR devices, resolving social interaction limits without centralized hosting complexity.

A digital circuit synchronization method determines phase shifts between signals at multiple sites to align timing.

Hardware counters replace software arbitration to calculate clock differences, reducing time synchronization fluctuations.

Secure circuits validate timestamps via nonce comparisons, preventing spoofed messages from disrupting synchronized operations.

A fabric card routes synchronous and asynchronous packets through a shared physical interface using dedicated internal logic for each protocol type.

Direct user plane exposure bypasses intermediate nodes to reduce transmission latency and improve reliability.

A wireless docking host substitutes its own IP address to establish direct connections with audio-video peripherals.

An IoT concentrator processes downlink data into asynchronous delivery queues based on forwarding priority to execute periodic metering tasks.

A clock manager provides centralized control over local clock generators in endpoint devices within an IP-based media production studio.