A sequence control circuit uses logic AND gates and two-stage MOS transistors to manage power signals.
A decision feedback equalization circuit adjusts signal delays to expand data pulse widths for reliable output.
A glitch detection circuit identifies clock signal anomalies using edge detectors and delayed pulse signals to maintain signal integrity.
A single-poly non-volatile memory cell uses a coupling structure to enable efficient page and byte programming modes.
A superconducting three-terminal device uses a low-resistance constriction to switch currents, eliminating Josephson junctions and magnetic field sensitivity.
A dual-function integrated circuit activates specific operations based on package orientation using symmetrical power supply terminals.
Three ambipolar homojunction devices simulate spike-time-dependent plasticity, reducing transistor count and power consumption for neuromorphic chips.
A contactor driver uses a retention output signal to maintain the operating state of an electric vehicle contactor.
Stacking MuGFET devices in a cascode configuration increases output resistance, reduces leakage current, and improves high-frequency performance.
A pull-down driver controls bit line voltages in magnetic memory arrays to maintain sufficient write current levels.
Vertical transport logic circuit cells share pitch between input and output terminals, reducing contacted polysilicon pitches by 17%.
A DC-DC converter uses digital logic circuits to detect reverse current during dead time.
Vertical stacking of resistive memory devices on transistors reduces chip surface area while maintaining data non-volatility.
Segmented FinFET demultiplexer circuits replace transmission gates with independent logic units, cutting area usage by 8% while lowering power consumption.
A charge pump circuit dynamically adjusts active stages based on output voltage levels to optimize current efficiency.