Generating/Distributing Signals TRIZ Cases

A gating circuit filters timing signals by opening a window during the preamble portion to pass valid data regions.

Asynchronous finite state machines use fork and join logic to coordinate state transitions without a shared clock signal.

A signal acquisition managing device generates synchronized command signals to reduce computational load on a processor core.

Digital logic replaces complex PLLs and NCOs by using fractional phase accumulation to generate rational submultiples, reducing FPGA resource usage.

A clock generator synchronizes frequency-divided PLL clock phases across dispersed semiconductor data transfer blocks.

A signal modulator adjusts drive strength for memory output lines based on control inputs to optimize electrical characteristics.

Host component transmits data to electronic devices using a faster downlink clock speed than the uplink clock speed.

A control system dynamically adjusts voltage and frequency settings in processing units to optimize operational parameters.

A shared memory bus controller manages simultaneous access to synchronous and asynchronous memories using common address and data terminals.

Manchester encoding embeds clock signals in data transmissions on a single wire, achieving 52 MHz rates while reducing GPIO pin counts.

A synchronization register attached to domain crossing logic prevents output signal transitions at selected clock cycle intervals.

Calibrated frequency hopping preserves memory access availability while reducing power consumption.

An overlay generates a transitional object covering an inline card, then adjusts to cover a snackbar to resolve disjointed user experience.

A phase-locked loop detects clock faults and switches to an alternate clock for continued operation.

A network interface device synchronizes clock signals by comparing received timing against a reference to maintain permitted jitter ranges.

A distributed timebase circuit provides local time references synchronized to a global clock for precise event alignment.

Reduced clock synthesis generates a proxy network to estimate power behavior, cutting runtime by 3-4 times while keeping errors under 3%.

An external clock circuit counts bit transitions to achieve microsecond timing precision, resolving software loop imprecision caused by compiler variations.

A processor adjusts clock frequency based on application instruction set architecture to optimize processing speed.

A display device controller adjusts operating frequencies based on synchronization signals to optimize panel performance.

Resonator ribs distribute sinusoidal clock signals via transformer-coupling lines to eliminate non-uniform clock current across circuits.

A comparator checks the receiving clock cycle to enable data transfer only during safe intervals.

A signal synchronizing device captures input signals and performs synchronous transfer between clock domains.

A latency control circuit shifts input signals using clock synchronization units that toggle only during active shifting operations.

A PCIe multiplexer overrides clock request pad voltage to enable power-saving mode, resolving compatibility issues with legacy devices.

Asynchronous bridge circuitry segments write pointer and transmission control across clock domains to reduce wiring overhead while preventing data overflow.

A single-wire serial interface uses a delay module to synchronize data transmission with local clocks.

Periodic micro wakeups allow a stationary vehicle telematics device to detect low-impact accidents without draining the battery.

A controller divides circuits into partitions and groups them to adjust skew values based on adjacent layout states.

Single bus architecture uses master peripheral arbitration to resolve signal conflicts while reducing manufacturing costs and system complexity.

An external wireless converter adds cellular connectivity to devices lacking USB ports via a programmable button and motor assembly.

A lockstep processing system power gates core subsets between primary and secondary sources to enable error detection circuitry monitoring.

A centroid synchronization algorithm aligns local clocks to a phase centroid across multiple processing devices.

An address decoder and synchronizer translates CPU addresses to identify I/O peripherals and manages data transfer between different clock domains.

A clock monitoring circuit uses a capacitor and constant current sink to detect signal anomalies.

A circuit detects transmission protocols using clock and word select signals to identify audio data interfaces.

A clock signal generator produces a lower frequency second clock during data pauses to transmit synchronization signals.

A dual window watchdog timer uses two independent counters to detect system errors and issue resets.

Microcomputer analyzes clock signals, updates modules via error counting to prevent malfunctions from system load.

Negative edge triggered latch relieves hold constraints without adding buffers, reducing power consumption.

A multi-clock system adjusts frequency gears to maintain performance levels.

Digital oscillators synchronize USB audio clocks, eliminating bulky crystal components to reduce processing unit size and manufacturing cost.

A UART sampling signal circuit uses a computing unit to compare sum values against threshold levels for precise frequency generation.

Automatic offset calculation eliminates manual configuration errors, ensuring accurate timestamp alignment across distributed systems.

Time compensator adjusts output signal timing to prevent setup violations during high-speed data transfers.

Local multi-clock buffers minimize clock skew and jitter by subjecting all signals to identical PVT variations.

An SPI client advances data transmission on the chip select falling edge to align signals with host clock edges.

Segmenting register programming into preliminary identification and subsequent configuration phases resolves boot-up timing constraints.

Metamaterial waveguides distribute clock signals via transverse magnetic fields, reducing interference and increasing information capacity.

A mapping component translates user-defined coalescing latency values into hardware register settings for multiple data queues using a shared base timer.