Multiple Input And Output Pulse Circuits TRIZ Cases

An adaptive threshold control system adjusts comparator thresholds based on timer measurements to maintain optimal drive current application.

A driving circuit generates a higher first voltage during an initial time interval to accelerate the turn-on speed of a semiconductor switch element.

A semiconductor bridge circuit detects failures during power transistor transitions by switching between potential difference and current change modes.

Comparator circuits replace isolator components in a power storage system, enabling cost-effective failure detection without increasing circuit complexity.

Through-silicon vias route chip ID signals to enable precise activation of individual chips within a 3D semiconductor stack.

A DC-DC converter adjusts slope signal depth via a conduction counter to stabilize output during load transitions.

A receiver circuit adjusts evaluation threshold voltage based on signal differences to improve interpretation accuracy.

Auxiliary winding recovers energy to balance capacitor voltages, preventing damage and improving efficiency.

Voltage detectors monitor supply levels to detect frequency manipulation attacks, protecting cryptographic engines from unauthorized access.

A relay operation state maintaining device uses a comparator and switches to adjust voltage levels for stable control.

A dead time adjusting circuit monitors switch voltage to detect timing intervals and generates feedback signals for precise ON delay control.

A power supply controller derives an integrator voltage from secondary winding signals to manage switch activation states.

A multi-phase voltage converter controller connects individual temperature sensing circuits to a shared monitoring pin via control signals.

A reference voltage generation circuit adjusts variable resistors to stabilize digital measurement signals.

Dynamic switching between control modes maintains light-load efficiency without requiring large external capacitors for discontinuous voltage sensing.

A power supply device adjusts signal transiting speed to generate driving signals for a power converter circuit.

An error amplifier circuit uses control logic to switch between internal and external compensation modes.

Adjusting transistor resistance within the inverter stages enables instant frequency changes without increasing circuit complexity.

Segmented driving circuits with feedback loops stabilize cell plate voltage and reduce setup time in high-density DRAM memory devices.

Segmented gain stages and latch circuitry capture input differences while reducing kickback noise and metastability in ADC systems.

A comparator circuit uses a flag signal generation circuit to detect small voltage differences between input signals.

A digital event generator uses a counter and comparator to evaluate count values based on temporal resolution.

A gate drive circuit uses a pre-charged capacitor and measurement feedback to regulate charge transfer.

A transformer arrangement combines energy generation and current measurement using a rectifier circuit and switching component.

A protection system monitors excitation current against theoretical values to detect turn-to-turn faults in synchronous machines.

A daisy chain clock distribution system uses phase shifters to synchronize multiphase power converters without dedicated control pins.

A reference voltage circuit uses bipolar transistor negative temperature characteristics to stabilize current against supply variations.

A control circuit uses a comparator and blanking pulse signal to stabilize the duty cycle of a switching power supply.

A state-detection circuit uses comparators and a decoder to identify input pin states across multiple signal types.

A pass transistor linearly transfers low voltage signals while clamping high voltage inputs to protect internal circuitry.

A power supply voltage detection circuit selects between stabilized and unstabilized potentials using a variable voltage dividing network.

A control circuit dynamically adjusts dead time between high-side and low-side switches using a comparator with a changing reference voltage.

A temperature detecting unit generates a bias voltage to adjust the channel length of a current sink unit for stable internal voltage detection.

Delay lines measure timing stages to dynamically scale power supply voltage, eliminating specialized frequency and temperature sensors that increase chip area.

A bandgap reference circuit employs a control mechanism that mitigates voltage overshoot and current spikes during startup, ensuring stable operation.

An overvoltage protection circuit uses a discharging mechanism to suppress voltage spikes in motor controllers.

Dynamic slew rate control reduces electric fields during programming, improving memory cell reliability and lifespan without process changes.

A time signal generating circuit adjusts on-time signal frequency through a dedicated frequency tracking mechanism.

A bandgap ready circuit provides stable voltage regulation for passive RFID tags using FRAM memory.

A measurement circuit uses a counter to set a voltage division ratio for battery voltage detection.

Hysteresis comparators monitor output voltage to stop oscillation, preventing energy wastage in thermoelectric harvesting systems.

A wearable device control circuit uses voltage comparison to automatically switch power states, preventing accidental start-ups from internal impedance loops.

A power supply device adjusts bias current through a current source circuit to stabilize operation frequency.

Kick transistors reduce transition time differences between rise and fall times, improving setup/hold margins.

A CMOS buffer circuit drives reference voltages using asymmetric comparators and a dead zone to minimize supply current.

Detects synchronous rectifier faults by comparing drain-to-source voltage to a negative threshold during dead-time periods.

A conductive sleeve voltage-biased by a biasing module detects current leaks in high-voltage DC electrical links.

A calculation code generation circuit produces optimized control codes by comparing reference and control voltages in inverted states.