Continuous To Patterned Pulse Manipulation TRIZ Cases

Two tunable inverting buffers apply equal and opposite correction to cut flicker and supply noise while preserving precise duty cycle control.

Divided clock phases retime delayed internal signals to preserve synchronization accuracy and operational margin at high clock frequencies.

A replica circuit calibrates clock phases before and during operation, cutting jitter and bit errors in high-speed serial links.

Upper and lower switch circuits strengthen duty cycle correction while preventing latch-up in differential output buffering.

A TDC-based duty cycle circuit widens frequency range while cutting power, noise, and delay-stage area for reliable pulse generation.

Parallel duty correction across memory chips preserves effective data windows without extending DCC training time in nonvolatile memory.

A variable bias controller adjusts level shifter coupling voltage from measured output duty cycle to keep switching stable across PVT variations.

Feedback from a duty cycle monitor sets clock adjuster codes around offset boundaries to correct memory timing distortion and reduce errors.

Differential clock sensing with DAC-based correction calibrates pseudo-differential duty-cycle distortion faster and with better PVT tolerance.

Corrects distorted differential clocks by aligning output edges to produce 50% complementary clocks and reduce deterministic jitter.

Low-pass filters and a differential amplifier self-correct clock duty cycle and 180° phase offset despite PCB trace mismatch.

A duty cycle monitor with offset boundaries enables coarse and fine clock adjuster calibration to correct internal memory timing distortion.

A clock-path delay element tracks supply-voltage noise to cancel jitter, improving DDR timing reliability without added power or latency.

Variable DCA step sizes and DCM offset boundaries help semiconductor memory tune internal clock duty cycle for accurate timing.

Two-stage memory clock calibration corrects duty cycle and widens valid read delay ranges, improving data reliability under noise.

Combining early and late signal pairs with sized transistors reduces skew and duty cycle distortion in high-data-rate output signals.

A duplicate duty cycle adjustor and monitor test clock corrections during memory access, keeping duty cycle control active without interrupting operation.

A phase interpolator and integrator simplify clock adjustment by controlling duty cycle and frequency with less circuit complexity and noise.

Output-data feedback detects duty cycle distortion and adjusts clock duty ratio to stabilize 1/0 pulse widths and reduce reception errors.

Variable duty clock recovery uses option-controlled delayed clocks to support multiple display modes without losing reliable timing.

Feedback sampling and comparison lock clock duty cycle at 50%, avoiding MOSFET asymmetry errors and manual calibration.

Flip-flop registers and delay taps track memory bus clock duty cycle during operation, enabling retuning without disruptive calibration.

A cascode re-timing clock circuit removes frequency divider noise from the output path, cutting phase noise and power use in local oscillator generation.

Clock duty cycle distortion is corrected by finding monitor offset boundaries and setting the adjuster code for accurate memory timing.

Bias and reference voltage circuits detect PVT-induced skew and adjust buffer currents to stabilize duty cycle and operation performance.

Cascaded programmable delay blocks tune clock delay and pulse width to ease setup and hold timing violations in dense ICs.

A feedback amplifier and low-pass filter correct duty cycle distortion from ground shift and noise to lower bit-error rates in communication.

Adjustable clock and data delays map the valid data window to correct source synchronous skew with low calibration overhead.

Periodic latch control stores fuse data during boot-up and fixes output levels to cut power use in high-capacity semiconductor memory.

Edge modulation and phase interpolation extend duty cycle correction beyond interpolator range, improving clock correction speed and reliability.

Parallel duty correction across memory chips keeps clock training time constant and preserves effective data windows in nonvolatile memory.

Adjustable receive-modulator duty cycles let one transceiver handle multiple RF bands with less filter and signal-chain complexity.

Two capacitor charge paths and a comparator generate precise variable clock duty cycles at low frequencies without high-speed digital timing.

Using an internal clock to generate a locking signal, this circuit corrects single-phase clock duty cycle while preserving timing accuracy and low power.

Differential receiver and divider stages cut internal clock duty cycle distortion while avoiding the area and power cost of conventional correction circuits.

Phase-based clock capture and duty-width adjustment cut 134 kHz interference while keeping asynchronous CXPI vehicle data accurate.

A pulse-width-to-voltage converter detects and corrects clock duty cycle drift from PVT variation to keep high-speed IC clocks near 50%.

Bias and reference voltage circuits detect PVT-driven skew and adjust buffer current levels to keep duty cycles stable.

Duty-ratio-based reference voltage training stabilizes strobe logic detection despite power noise and environmental variation.

Using split divisors, pulse width adjustment, and a high-frequency bypass, this case enables flexible output frequency and duty cycle selection.

Bias-controlled signal adjustment cells correct clock skew and duty cycle across high frequencies while reducing power use.

A feedback circuit measures complementary output mismatch and injects control current to correct PVT-driven duty cycle distortion during data sampling.

Duty-cycled IC power domains use shared rails and rapid state switching to cut energy waste without the transition penalties of conventional DVFS.

Oscillator and counter feedback tracks clock duty cycle on chip, enabling periodic adjustment for stable circuit performance and lower power.

By averaging correction codes from clock and complementary clock paths, this case cancels intrinsic offset and preserves DDR timing margins.

Voltage swing and phase control in a clock divider reduces internal clock duty cycle distortion while avoiding large, power-hungry correction circuits.