Electric Pulse Generator TRIZ Cases

Dynamic staged output activation and delayed deactivation speed long IC interconnect transitions while cutting power and crowbar current risk.

Different delay paths separate reset and write-enable pulses to cut leakage current and preserve precharge timing during read/write changes.

Tracking high and low supply voltages follow the drive waveform to cut transistor power loss and keep inkjet capacitive loads stable at high frequency.

A precharge-storage-discharge pulse circuit controls node discharge timing to keep pulse widths uniform with smaller, lower-power devices.

A weak buffer and delay block hold output levels and disable pull drive fast enough to avoid bus contention without turnaround time.

Measured delay mapping selects proper delay stages to keep high-resolution delay circuits monotonic despite temperature and process variation.

A one-shot chain adapts multiphase pulse timing to circuit loading, improving reliable shift-register control and fast data sampling.

Constant current charging and discharging in an LVDS pre-driver slows output edges to reduce EMI and support longer transmission lines.

Phase-shifted clock signals and parallel PWM circuits raise printer resolution across base frequencies without costly high-frequency ICs.

An adaptive adjustment voltage suppresses parasitic PN junction turn-on and short current, cutting chip area and power in memory level shifting.

PVT-compensated buffer tuning uses scaled drive codes and offset registers to align chip output timing with less test burden.

Phase mixers replace RC delay control in a data output buffer, enabling precise slew-rate timing with lower noise and jitter at high speed.

A control circuit uses current and temperature sensing to set the shortest safe MOSFET off-period and prevent thermal overload.

A low-pass and integrator feedback loop adjusts comparator threshold to keep clock duty cycle accurate and stable under load disturbances.

Selective unit delays and phase mixing correct clock duty-cycle imbalance while cutting power use in semiconductor integrated circuits.

Programmable master-clock delay in split flip-flop clocks extends timing-path computation time and enables post-silicon setup tuning.

Segmented PMOS/NMOS feedback shifts Schmitt trigger trip points from 0.1 Vcc to 0.9 Vcc for accurate multi-voltage level detection.

Split-level capacitive switching limits differential clock swing to half the supply range, improving bandwidth while cutting power.

Clocked current steering reuses preamplifier current in the latch to cut comparator power while improving bandwidth and resolution time.

CMOS quadrature VCOs, selector, and SSB mixing enable fast frequency hopping with lower power, better SNR, and low-voltage operation.

Overlapping clocks and pulse-driven transparency let a latch capture data on both clock edges while cutting clock power and easing timing uncertainty.

Variable pulse widths and clock regulation prevent overlap and duty drop, preserving tAC and tDQSCK at high DDR SDRAM frequencies.

A source-node bias circuit keeps MOS transistor VDS below snap-back voltage, preventing latch flipping, standby current, and data corruption.

Using an oscillator-gated ripple counter, this delay line cuts area and power while filtering short pulses and tuning duty cycle.

Cascaded arbiter stages with calculated delay elements separate closely timed asynchronous requests to cut metastability failures and keep outputs valid.

Digitizing MR signals in the coil unit and syncing them by wireless sampling clock cuts cable burden while preserving dynamic range.

A floating-input pre-charge/evaluate flip-flop cuts short-circuit and DC currents to sustain high frequency at low voltage.

A series-parallel resonator network shifts VCO operation to cut phase noise, widen tuning range, and reduce phase hits.

Transition sensing and clock selection let this output buffer keep complementary outputs synchronized in both synchronous and asynchronous modes.

Multiple timing chains let self-timed and racing paths switch delay margins with voltage and temperature to avoid failures without worst-case slowdown.

A switched capacitor and tristate inverter raise storage-node capacitance while preventing charge sharing that can invert latch data.

A feedback delay circuit corrects clock duty-cycle drift from mismatch and temperature shifts, stabilizing DRAM internal timing.

Symmetrical series-resistor branches in an LVDS driver cut reflections, enable half-duplex pin sharing, and lower power use.

A slave latch preserves logic state during power-down and restores the master latch, cutting leakage without clock state restrictions.

Parallel data injection at multiple feedback-loop points cuts memory state update time while lowering retention voltage and standby power.

Dual-slope integrators and N-channel slew-rate control correct DDR clock duty cycle accurately while avoiding added circuit complexity.

A C-element with inverted delay feedback bounds forwarded clock duty cycle near 50% to prevent timing violations in high-frequency circuits.

A constant clock signal lets a latch retain stored data at reduced power, cutting static leakage without complex memory arrays.

Parallel counter-controlled delay lines with a common latch improve clock phase granularity and maximum frequency for flexible FPGA clock outputs.

Early charge recycling with a switch-controlled clock driver cuts power, area, and delay when driving 10-50 pF capacitive loads.

Two interacting latch circuits and output feedback stabilize MOSFET conduction, prevent false triggering, and control duty cycle under load.

A controllable current source tunes driver voltage drop and output swing to compensate impedance variation and reduce calibration complexity.

Adaptive current gain and digital error storage cut clock duty-cycle settling time while preserving correction accuracy after power-down.

Capturing input data on the control signal edge lets a latch hold values independently of the falling edge, easing mixed-source timing constraints.

Using low-voltage cascode current sources, this case shows how H-tree drivers preserve differential output and reduce headroom limits.

Adaptive bias switching and loss-of-signal detection improve LVDS receiver PSRR while cutting noise and excess power use.