Controlled continuous or intermittent current limiting cuts fault current while reducing harmonic distortion and semiconductor thermal stress.
Dynamic overcurrent thresholds let an aircraft APU use available power across altitude and temperature changes while protecting equipment.
Dynamic current limiting raises startup current for heavy loads, then restrains short-circuit stress to protect PMICs during boot.
Comparator logic distinguishes surge, short-circuit, and fault overcurrents from current and voltage thresholds for microsecond-level protection.
Comparator-based current and voltage checks distinguish surge, short-circuit, and fault overcurrents for microsecond-level breaker protection.
Voltage-threshold sensing replaces temperature-dependent PPTC behavior, enabling automatic reset and reliable overcurrent protection.
Frequency thresholds distinguish bulk-grid and inverter power in islanded substations, enabling targeted load shedding and overload protection.
An electronic interrupter follows the transformer through-fault curve to avoid inrush trips while opening before thermal or mechanical damage.
When a downstream breaker has an internal failure, upstream trip settings switch to emergency mode to prevent damage and maintain uptime.
A capacitor timing circuit estimates motor cooling time after shutdown to calculate remaining heat accumulation and prevent overheating on restart.
Field-configurable circuit breakers use user verification and physical presence to enable secure updates without device replacement.
A real-time current-slope algorithm separates inrush from real short circuits, preventing breaker false trips without losing fast protection.
Measured bias current is compared with a reference so the controller can cut or limit battery bias voltage before RFFE amplifier burnout.
A learned current profile lets the control unit detect abnormal load behavior and shed selected circuits before the power supply reaches its limit.
Dynamic trip-time curves and coordinated panel protection improve fault coverage in battery, PV, and grid-powered electrical systems.
Sensors and a controller learn normal power and water use, then trigger cutout elements when abnormal consumption patterns appear.
Uses substation voltage, current, and status signals to estimate complex source impedance from faults or switching events without created faults.