A programmable BOR circuit shifts between low quiescent current and fast voltage-drop response to protect logic and extend battery life.
Series PMOS control stabilizes the reset signal during internal voltage rise-up, preventing VDD-to-GND through current and failures.
Peak-based feedback adjusts emitter current to keep encoder differential amplitude within range despite aging, drift, and contamination.
Cascode current paths raise voltage swing and PSRR, improving noise immunity and reliable high-speed detection at low current levels.
Dual current conveyors sum positive and negative transistor currents to compare larger currents accurately while stabilizing reference voltage.
A master-slave interface adapts read sampling to delay variation by choosing the rising or falling clock edge for reliable data recovery.
Bias-current weighting replaces resistor voltage division to interpolate and buffer display drive voltages with less layout area and lower cost.
Adjustable drive voltage changes each delay stage to measure short and long time intervals in one compact circuit.
A rectified-input current source keeps optocoupler LED current constant, cutting AC mains zero-crossing error to under 100 microseconds.
A feedback-controlled MPWM approach compensates time delay and power noise in digital amplifiers while preserving signal accuracy and efficiency.
A common-gate input stage, current-mirror amplifier, and SR latch enable ground-level sensing with low offset, wide bandwidth, and fast response.
Level-crossing detection turns sampling switches off at zero crossing to capture output voltage precisely while reducing noise in switched-capacitor circuits.
Threshold-based loss detection lets a serial receiver ignore weak or absent signals, cutting noise, power use, and PSRR-related issues.