Instant Pulse Delivery Arrangements TRIZ Cases

Internal voltage detection generates isolation enable early during domain power-down, preventing corrupted logic with lower area and leakage.

A zero-crossing detector and delayed clock let one comparator threshold monitor sinusoidal AC and DC signals more reliably.

Shifted sampling after zero crossing lets one threshold monitor AC effective values and DC signals without peak-value detection limits.

A latch comparator and quenching circuit regulate excess bias voltage to cut power use and keep single-photon detection stable across temperatures.

Common-mode extraction and differential reference voltages improve small-signal peak detection accuracy, linearity, and reliability.

A pattern generator and charge-pump detector calibrate clock duty-cycle errors in serial transmitters to cut deterministic jitter.

A single footer transistor and pre-charged footer node cut domino flip-flop power, setup time, and CK-to-Q delay.

A tunable resistor and programmable gain adjust comparator thresholds to deliver more accurate, temperature-stable reset timeout periods.

Phase and timing signals derived from 90° divided clocks enable precise synchronization without restoring full clocks, cutting power and buffer size.

A pre-charge and latch-based voltage detection circuit generates valid reset signals across changing supply voltages to stabilize logic startup.

A shared-node transistor layout cuts flip-flop transistor count to shrink cell area while preserving high-speed operation and lowering power.

An external glitch amplifier and pulse-triggered transistor inject compensating current to cut voltage regulator droop without larger capacitors.

Continuous bias current across high- and low-side switching removes settling delay and preserves accurate current tracking in half-bridge circuits.

Programmable gain and comparator thresholds replace external timing capacitors to improve reset timeout accuracy and temperature stability.

Periodic latching detects memory supply drops below a trigger level while avoiding DC draw, helping preserve stored data.

Propagation-delay modeling in CDC paths helps detect metastability and data-loss risks early, guiding buffer insertion before fabrication.

A peak detector, subtraction amplifier, and compare unit simplify voltage signal analysis, cut circuit area, and lower manufacturing cost.

Motion detection disables only grip-zone inputs while a hinged device is opened or closed, preventing accidental touch without blocking all controls.

A capacitor-charging delay with a current mirror cuts steady current draw and false triggering in semiconductor power-on reset circuits.

Rate-of-change monitoring helps proximity switches ignore condensation and driver exploration until stable intent is detected.

Detects positive and negative clock edges to calculate duty cycle, enabling clock skew calibration despite process variation.

Block-based peak detection cuts AGC computations in digital radio receivers while preserving accurate signal level control and signal quality.

An interface die detects stacked memory dice and assigns unique IDs during initialization to simplify TSV communication and save circuit area.

Dynamic bias current and voltage let this peak detector track large sharp voltage peaks quickly while preserving linearity and accuracy.

A management circuit monitors IC variation, wear-out, and tampering events, stores event data, and outputs health indicators for robust operation.

A differential receiver with positive and negative Schmitt triggers distinguishes AC and DC currents in one circuit, cutting complexity and cost.

Mode-switched sub-selection circuits improve PMOS drive and keep maximum-voltage output stable when input differences are small or equal.

Propagation-delay modeling and buffer insertion expose clock domain crossing timing faults early, reducing metastability risk and redesign time.

A constant-voltage bias path keeps comparator current stable as supply voltage rises, cutting power use with a simpler MOSFET mirror circuit.

Charging-current sensing lets a peak detector vary discharge current to boost bandwidth and response speed while minimizing output ripple.

Differential peak detectors cancel data-related ripple while tracking fast power transients for stable AGC gain control signals.

Segmenting threshold detection into coarse and fine phases reduces output voltage overshoot caused by finite detector delay, improving linearity.

A sequence circuit detects events and generates synchronized clock pulses to inhibit further inputs during a defined period.

Dynamic modulation circuit accelerates output voltage rise by switching from ballasting to boosting charging, reducing sleep mode restore time.

Segmented trigger and latch modules generate polarity pulses from toggled data bits, enabling easy integration with digital SOC systems.

Clock pulse counting through conductive paths assigns unique identification data to each die, resolving detection difficulty without increasing circuit area.

A voltage level detector adjusts threshold levels dynamically to detect input signals with a single comparator.