Counting Chain Pulse Counters TRIZ Cases

Mid-cycle increment updates let a closed-loop timer change frequency without waiting for a new count period, reducing latency and avoiding period corruption.

Integer clock increments are sequenced to match non-integer period durations, reducing jitter and preserving accurate synchronous time stamps.

A counter-based driver circuit turns filtered remote pulses into stepped control voltages, avoiding pairing and decoding for lights or motors.

Probabilistic delay assignment linearizes clock delay and turns fractional timing errors into noise to cut jitter and spurious tones.

Flexible divider stages and coupling feedback enable non-binary ratios, precise monitoring, and fast incompatibility detection in power supplies.

Reset-coupled divider stages enable flexible acceptance windows for voltage-supply monitoring, helping detect controller incompatibilities during testing.

A state machine updates counter expiration values at the right count boundary to keep divided clock duty constant when the divide ratio changes.

A dual-clock baud correction scheme preserves serial synchronization accuracy while cutting slave-node power by limiting high-accuracy clock use.

Masked-pulse clock division and toggle markers align data transfer between mixed-frequency circuits while lowering power and timing design cost.

Separate logic blocks on inverse clock phases cut setup-time limits and parasitic loading for stable divide-by-3 output at high frequency.

Sync circuitry aligns root and component divider changes so independent clock updates preserve frequency consistency across multiple components.

By comparing pulse periods at two delay settings, this circuit measures delay accurately without high-speed clocks or event-timing errors.

A counter, multiplexer, and delay module align phase delay to cut timing error, suppress jitter and spurs, and widen RF divider range.

Direct charge-domain multiplication avoids voltage conversion noise and latency in ML image sensing while lowering power use.

A staged divider with XOR-delay correction and D flip-flop division restores a 50% clock duty cycle to avoid DDR timing issues.

Sync circuitry coordinates root and component divider updates so independent clocks can change without disrupting timing stability or power flexibility.

Phase-shifted fractional clock division moves operating frequency off RF harmonics, reducing noise sensitivity in communication circuits.

Sync circuitry coordinates root and component divider updates so clock changes preserve independent divider operation and system stability.

A counter, buffer, and voltage regulator replace pairing and decoding, letting LED lights shift brightness and states through control voltage changes.

Transfers n-bit phase values across non-synchronous clocks using delay-based latching, reducing sync circuitry, power use, and timing errors.

Frequency-based counting replaces analog voltage sensing to widen measurable resistance range and keep gas concentration resolution stable.

Multiple reset paths and preloaded count values help a programmable clock divider cut ripple-counter delay, glitches, and power use.

A third inverter between master and slave latches blocks signal backflow in Fin-FET flip-flops while avoiding taper issues and preserving yield.

An auxiliary loading circuit offsets frequency-dependent load changes on a regulated node to cut deterministic jitter with less bypass capacitance.

A switchable reference signal path lets one VSAT modem support linear and saturated radios over a single IFL, cutting installation complexity.

Coarse clock gating changes operational clock frequency on the fly, cutting power during low workload without suspending processing.

Pulsed amplification boosts latch input voltage differences only during enabled periods, then holds output levels to reduce noise-induced errors.

A mode control circuit switches SCI transmit and receive states without reset or standby time, improving synchronous data transfer efficiency.

A third inverter between master and slave latches blocks signal backflow in FinFET flip-flops while shared contacts shrink layout and protect yield.

Varying divided-clock edge delays aligns selected edges to the higher-frequency clock, suppressing mixing spurs and preserving RF receiver SFDR.

Phase comparison and selective clock reset restore multi-phase alignment under noise, preserving high-speed IC operation.

A semiconductor switches clock frequency by temperature to curb leakage power, cut overall consumption, and extend shutdown time.