Counting Chain Synchronous Pulse Counters TRIZ Cases

Using divided clock stages and logic gating, this case shows how NP.5 clock division improves duty cycle control and reduces jitter in high-frequency links.

Integrated C10 feedback lets a 4-bit synchronous counter switch between MOD-10 and MOD-16 counting without external reset logic.

A two-unit latch buffer and shift register simplify cross-clock forwarding in deterministic field buses, improving stability and reducing packet loss.

Integrated output amplifiers within the latch loop raise output amplitude and cut phase noise in RF frequency divider circuits.

Two alternating counters enable predictable, glitch-free clock frequency changes while preserving circuit stability during handoff.

A combined mux-flop clock divider preserves phase difference while cutting power, latency, and on-die area in high-speed IC clocking.

Edge-specific delay control in a buffer circuit cancels frequency-divider phase noise and preserves clean 50% duty-cycle signals for Wi-Fi transmission.

Using both rising and falling input-clock edges, this divider raises output frequency scaling to support faster cores and lower power noise.

By spacing row hammer refreshes at predetermined intervals, this circuit stabilizes current consumption while preserving DRAM data integrity.

Narrow pulse control and a short three-gate path cut divide-by-2 clock jitter while preserving stable phase and drive strength.

Capacitor-based sensing counts concurrent memory switching events against a threshold, improving data-weight detection despite voltage variation.

Phase comparison and invalid-pulse removal stabilize a read clock against asynchronous write and divided clocks for reliable data transfer.

Counter-based edge timing lets wireless test equipment reconstruct the original signal accurately despite clock drift and transmission delay.

Variable delay tuning inside master and slave divider latches corrects IQ imbalance and improves signal integrity in high-speed transceivers.

Segmented page buffers and clock-based signal transfer replace noise-sensitive analog fail-bit counting for faster, more accurate NAND detection.

Capacitor-based sensing components accumulate charge from concurrent memory events, enabling accurate threshold and data pattern weight detection.

By splitting counting between asynchronous and synchronous stages, this code generator maintains synchronized bits at high speed and low power.

Parallel sensing capacitors accumulate switching events and trigger a comparator at a set threshold for accurate memory pattern weight detection.

Clocked control switches prevent shoot-through and high-impedance nodes in LO divider circuits, improving duty cycle accuracy and noise rejection.

Delay circuits and set-reset logic remove clock glitches caused by noise, producing a stable output clock and preventing circuit errors.

A hierarchical mix of serial and parallel bit counting cuts memory fail-count delay and speeds programming completion checks.

A synchronous RTC prescaler loads corrected counter values to improve timekeeping accuracy and enable automatic test pattern generation.

Dynamic TSPL logic replaces slow static gates to divide 2.5-4 GHz clock signals accurately by 2, 3, 4, or 6.

A shared clock path lets common and reduced frequency outputs keep matched delay, cutting extra delay circuitry and power use.

Real-time voltage feedback adjusts the driving signal enable period to stabilize core voltage and reduce current consumption in memory circuits.

A re-timing circuit aligns odd-divider output transitions to a 90° shifted reference, enabling quadrature signals with reduced RF frequency range.

Periodic latch hold control cuts loading time and power use in high-speed counting circuits while preserving counting accuracy.

Alternating M and M+LSB division with duty-cycle correction delivers a 50% clock output at multi-GHz speed without half-cycle counting.

Hold control disables latch activity during counting and restores it in holding sections to cut power and loading time in dense counting circuits.

Constant-level bit outputs in early count units cut digital counter toggling and reduce power use while preserving count operation.

A divider-counter-multiplier circuit cuts clock-transition power and footprint while preserving accurate timing signals at higher frequencies.

A feedforward control unit cuts latch current paths from differential inputs, reducing static and dynamic power in high-speed divide-by-2 circuits.

Small pre-counters feed 64-bit RAM via a sweeper state machine to count high-rate events accurately while cutting FPGA and ASIC resources.

Selectable divided clock paths let DDR memory timing switch between normal and geardown modes while cutting clock frequency and power use.

A divide-by-3 stage feeding a PLL-based frequency doubler delivers a 50% duty cycle while cutting fractional divider complexity, power, and chip area.