Receiver Initialisation TRIZ Cases

Separate strobe and data clock recovery keeps sampling aligned, reducing jitter and encoding overhead in high-speed parallel I/O.

Multi-step frequency tracking and dynamic accumulator ranges let clock data recovery lock under large offsets while maintaining jitter tolerance.

Dual resync and retimer modes adjust delay and clock phase to cut latency, reduce jitter, and avoid extra power-hungry CDR stages.

A PLL and reference clock keep all-slave ring nodes within frequency limits, preventing rotating unlock and data errors.

Two PLLs split clock tracking and holdover, letting slave nodes detect timing error and correct resynchronization after downstream outages.

One SerDes architecture switches between point-to-point and point-to-multipoint modes to balance lock time, jitter, and manufacturing cost.

Recovered data timing is cleaned by a PLL and fed back as the reference clock, cutting jitter and removing external oscillators.

Interleave-specific timing loop control decouples FFE adaptation from timing recovery in SerDes receivers, improving lock stability and bit error rate.

Unequal UWB frame intervals extend coverage under power limits while preserving phase precision through antenna switching and lower impulse density.

Segmented UWB frame timing improves antenna switching, cuts offset and jitter errors, and extends phase-based positioning coverage.

Activation-state switching lets a terminal process time sync packets only when needed, cutting multi-clock power use while preserving precision.

Parallel fast and robust synchronization cuts time to audio in clean RF signals while maintaining decoding under jamming and Doppler shifts.

Nonce fields built from slot, round, block, and cycle indices secure UWB ranging frames while reducing signaling overhead.

Uses amplitude-aware phase extraction across multiple symbol periods to keep detection gain stable and lock pulse response edges reliably.

Separate transmit and receive latency training fixes clock-domain packet delay variation, improving timestamp adjustment after PHY resets.

When GNSS cannot provide startup time, a UTC(k) node directly initializes a selected cnPRTC node to keep mesh synchronization accurate and available.

AF-triggered TSN containers let the NEF and SMS-SC synchronize selected UEs immediately or on schedule while reducing implementation costs.

During link training, the transceiver stores separate transmit and receive latency values to correct timestamp variation after PHY resets.

Edge-aligned clock generation compensates for loop delays during tuning operations, allowing accurate DDR data transfer without synchronous signal lines.

A clock data recovery loop filter adjusts sampler clock phases via a phase interpolator to reduce latency caused by FIFO deskewing operations.

Monitoring node tracks synchronization status across automotive Ethernet nodes to establish a common time base.

A retimer module digitizes receive signals and derives sampling clocks based on equalization errors to enable efficient training.

Time-based measurement of voltage levels eliminates silicon wafer gain variations while feedback loops reduce inherent latch delay offsets.

Nonsynchronized delay measurement calculates forward and reverse one-way delays using a virtual clock to convert remote timestamps.

A wireless lighting module integrates solar cells and rechargeable batteries to provide autonomous illumination without wired power connections.

A data phase recovery method adjusts transmission bandwidth to accelerate clock and data recovery locking during burst code stream transmissions.

Varying oscillator control settings across a tuning range to acquire clock signals without a reference clock.

Parallel processing channels compensate for latency-induced phase errors, enabling accurate polarization recovery in high-speed optical fiber links.

Multichannel clock and data recovery circuits share adaptation hints to improve signal integrity against crosstalk and spectral issues.

A fractionally spaced maximum-likelihood sequence detector adapts branch metrics using probabilistic channel models to improve sampling statistics.

Multistage sample circuit compares signals to adjust phase, reducing manual adjustment time.

A PAM-4 data clock recovery controller uses an envelope detector to identify the true signal peak for accurate sampling phase generation.

A data transmission method embeds clock signals within data packets to eliminate separate clock lines and reduce wiring complexity.

A clock data recovery circuit adjusts operational frequencies to maintain stable synchronization across different SATA generations.

A clock and data recovery circuit adjusts voltage controlled oscillator frequency via a dedicated detector to maintain signal synchronization.

A transceiver tracks reception clock signals to dynamically adjust transmitter frequency.