Synchronisation Information Channels TRIZ Cases

An auxiliary wireless transmission channel carries synchronization signals with controlled latency to align data packets at the receiving terminal.

Electro-optic conversion and free space transmission maintain phase lock between remote instruments, reducing signal attenuation over extended distances.

A removable memory device generates a phase synchronization pattern with distinct signal cycles to adjust host terminal reception clock timing.

Adjusting local timebase limits via synchronization events prevents saturation and lag across clock domains.

A receiving circuit buffers clock and data signals with adjustable delays to align their phases for accurate logic level discrimination.

A receiver extracts timing from rising and falling edges of a single data stream to synchronize sampling without a dedicated clock line.

A clock scrambling unit varies frequency and pulse width to disperse spectral energy across the signal spectrum.

A resolver correction device maintains a 90-degree phase difference between phase shifters using dynamic shift amount adjustments.

Segmenting lanes into high speed data and low speed feedback subsets reduces equalization training time while maintaining target transfer rates.

Function-specific time generation reduces network load and maintains synchronization reliability when designated servers become unavailable.

Programmable delay elements stretch signals to meet setup and hold times, preventing meta-stability across differing clock domains.

Recovering a reference clock from Ethernet signals eliminates expensive GPS receivers while ensuring 50 parts per billion accuracy.

Hardware-based differential transmission eliminates processor occupancy and time delay compensation while maintaining high time accuracy for PWM carrier clocks.

A mode switching circuit multiplexes control and data signals on a single PDM interface, eliminating separate control channels to reduce hardware complexity.

Skew adjust circuits synchronize clock edges between independent PLLs, eliminating large buffers and boosting data transfer rates.

Extracting base station clock signals enables synchronized switching of master and remote units across shared waveguides.

A synchronization circuit converts barrier requests into network packets to coordinate processing units.

A circuit arrangement serializes single-ended and differential signals into a common stream to enable full duplex communication.

Master device transmits continuous identical dummy bytes after data body to enable slave device recognition of transmission completion.

Converts reference clock to analog signal routed directly to RF card, reducing phase noise and optimizing power consumption.

Dedicated clock links separate synchronization from data transmission, reducing hop noise and latency.

A method calculates communication time delays in electrical power networks by equating node currents to zero according to Kirchhoff's first law.

Baseband clock synchronization removes latency and resource overhead from frequency offset compensation by eliminating sample rate conversion blocks.

Phase estimation calculates safe sampling windows to reduce latency and area overhead in asynchronous FIFO synchronization.

Phase detection circuits segment clock cycles to hold data near the period center, increasing migration margin for faster transfer speeds.

Segmented synchronous master-to-slave and asynchronous slave-to-master transmission reduces system structure complexity.

Modulating tap weights synchronously with each symbol compensates for clock accuracy limitations, improving bit-error rate and jitter tolerance.

Segmenting the spectrum into distinct bands prevents crosstalk and maintains synchronization stability during dynamic bandwidth redistribution.

Network device sets port dataset signal fail attribute to indicate message loss when clock messages are absent.

Alternating RPD operational modes reduces synchronization time from 34 hours to 8 hours while maintaining LTE performance.

A patient monitor uses a master clock to synchronize operating system time information across connected external measurement apparatuses.

A bus synchronizer generates synchronization pulses to reset CPU timers and slot counters of I/O modules.

Tracking frequency comb measures time offsets to achieve sub-femtosecond timing over long optical links.

A gateway adjusts TCP maximum segment size values based on tunneling overhead to optimize packet transmission across multiple network tunnels.

A communication device combines full-duplex SPI with half-duplex TDD protocols to transmit data blocks within synchronized frame periods.

Inserting a quantity mark into the data stream recovers original timing information, resolving synchronization issues caused by idle code block insertion.

Communication modules timestamp measurement data and apply predefined delays to synchronize transmission over packet switched networks.

An asynchronous MAC scheduler divides time slots into sub-slots to offset receiver blocks.

Dual control loops synchronize local oscillators in simulcast radio networks, eliminating dedicated synchronization channels to preserve available bandwidth.

Varying the second edge of a clock cycle encodes data via pulse width modulation, resolving signal skew across physical distances.

Exchanging counter states over a bidirectional link captures time offsets to compensate for transport delay effects in distributed devices.

A specially-configured I2S bus establishes a general-purpose data link between processors using continuous serial clock signals.

Direct trigger lines synchronize mixed sensor types, eliminating bus delays that limit detection range and prevent cross measurements.

A gateway supporting multiple time domains synchronizes with independent fieldbuses to transmit data without cycle alignment.

A single-line serial transmission circuit combines clock and data signals into a synthetic signal for high-speed communication.

Detecting transitions in a slower clock domain using faster clock logic transfers data without handshaking, reducing transfer time and power consumption.

A CXPI bus controller schedules sequential load operations using integrated delay times within command signals.

Reference lane training minimizes power consumption and delays by aligning inactive lanes without individual periodic checks.

Transmitting and receiving circuitry re-times digital input signals based on clock phase alignment to synchronize data across asynchronous domains.