A voltage detector uses digital logic circuits to monitor input voltage levels outside guaranteed operating ranges.
Charge transfer capacitors measure floating battery voltage, reducing circuitry cost and power consumption.
Integrating current, voltage, and power harvesting into one housing reduces device volume and simplifies wire management in electrical switching apparatus.
Integrated detectors compare measured voltage-current relations with predetermined characteristics, eliminating external ATE test time and reducing yield loss.
Current comparison charges reactive loads via matched components, eliminating operational amplifier offset errors and charging latency.
A bitline sense amplifier uses a pre-sensing unit to control voltage levels on paired bitlines before main amplification.
An impedance matching network with solid-state switches compensates Giant Magneto-Impedance sensor fibers.
Synchronizing enable signals inactivates the first sense amplifier block during second block sensing, reducing current consumption.
A semiconductor switch control method specifies a voltage tolerance range and monitors applied levels against defined thresholds to ensure safe operation.
A specialized power cable transmits identification data between a target device and an intelligent power distribution unit for automatic identity association.
Dynamic sensitivity adjustment resolves contradictions between detection capability and location precision by narrowing measurement ranges.
Merging voltage divider and pull-down functions reduces component count while protecting against high voltages in low-cost USB Type-C receivers.
Continuous voltage drop monitoring detects contact degradation, preventing power loss and ensuring accurate energy consumption measurements.
A power module controller identifies grid fault types to enable converter ride-through during low voltage conditions.
A vehicle electronic control device monitors wake-up circuit voltage to detect switch malfunctions without relying on stored error data.
A diagnostic device superimposes alternating current on fuel cell output to calculate individual cell impedance for state monitoring.
Subdividing clock cycles into partial periods creates fixed detection windows, resolving complexity in single-sensor phase current monitoring.
Hall effect sensors replace heavy custom coils to detect current leaks via magnetic fields, reducing system weight and PCB space.