Voltage sensing across the thermostat fuse and MOSFET shutoff detect wiring faults early, prevent HVAC damage, and guide user recovery.
By measuring fuse voltage and thermal equilibrium, this case calculates current accurately without bulky shunts, cutting cost and space.
Voltage monitoring across an ECU fuse replaces visual inspection, enabling automated blown-fuse detection and freer fuse placement.
Consumer-side voltage monitoring checks whether an electronic fuse can switch off within a set time without disrupting always-on loads.
RC voltage decay across a shared resistor identifies blown fuses in multi-fuse DC circuits, cutting manual inspection time.
A fuse-switch current-diverting circuit protects SPDs by separating surge currents from fault currents and disconnecting dangerous overloads fast.
Resistance threshold monitoring detects cutoff switch wear more accurately than cycle counts, enabling timely degradation alerts and reliable power-path operation.
Identification, current, voltage, and temperature sensing let a receiver detect wrong or non-standard fuse replacements before failures.
Voltage and current monitoring on a battery cable detection shield warns of insulation damage before short circuits or thermal events.
Capacitor-based voltage sensing detects a blown fuse electrically, freeing in-vehicle fuse placement from visual inspection constraints.
A latch and voltage dividers compare VREF and VFUSE to read fusible links reliably at low supply voltage with less PVT sensitivity.
Model-based comparison of battery measurements detects blown fuses and limits vehicle current to avoid overloading remaining cells.
Temperature- and strain-based monitoring estimates electrical fuse fatigue and remaining service life without complex hardware.
Voltage-drop sensing adds galvanically isolated fuse fault detection to compact load-break switchgear, saving space and enabling automation.
A latch and voltage-divider scheme reads fusible links below 1V despite high-threshold MOSFETs, improving PVT robustness and array scaling.
Temperature and resistance tracking estimate electrical fuse fatigue life, enabling timely replacement with less complex EV power monitoring.
Real-time electrical and environmental sensing combines physics and machine learning to predict fuse fatigue early and support proactive replacement.
Fuse state information invalidates diagnostics during power switching, preventing false communication fault detection between control devices.
A common voltage signaling line lets parallel electronic fuses share fault status, latch responses, and prevent cascading failures.
A thermal fusible link and monitoring circuit detect high-impedance arcs without optical sensing, improving reliability in semi-enclosed spaces.
Switching a resistor across a battery cell and measuring string current reveals a blown fuse before use, helping prevent overload of active strings.
Current-based fuse monitoring detects interruptions in under 1 ms without extra wiring, reducing circuit complexity and missed failures.
A monitored fusible link detects high-impedance arcing through heat-triggered breakage, avoiding line-noise interference and enabling rapid interruption.
Parallel fuse-resistor inputs let one multiplexer port identify multiple node voltages, cutting PCB space and multiplexer count.
A protection circuit uses reference eFuses and voltage regulation to prevent secure-state misreads when IC supply voltage exceeds the eFuse range.
Automatic status detection and wireless reporting replace manual disconnector checks, enabling frequent remote monitoring in power grids.
Voltage monitoring and DCIR confirmation detect parallel cell disconnection early, helping prevent overcurrent damage and battery degradation.
Voltage dividers and a latch compare fuse and reference voltages to read fusible links reliably at low supply voltage with less PVT sensitivity.
Selective E-fuse blowing matches each chip to a preset trim pattern, correcting batch output variation and improving shipment consistency.
A resistor-divider and multiplexer scheme identifies fuse status across multiple nodes through one port, cutting PCB space and multiplexer count.
Monitors discharge voltage and confirms with DCIR to detect parallel cell disconnection before overcurrent degrades remaining cells.
Compact retrofit fuse monitoring tracks current, temperature, humidity, and vibration to predict failure, cut downtime, and guide maintenance.
Fuse fatigue is predicted from current, ambient temperature, and resistance-based temperature estimation, enabling timely replacement in EV power systems.
Real-time temperature, humidity, vibration, and current data are used to predict fuse life and enable proactive replacement before failure.
Current sensing tracks excess fuse current over time to predict thermal stress damage and alert replacement before machine downtime.
Tool-free fuse block monitoring uses temperature, humidity, vibration, and current sensing to predict fuse failure and cut downtime.
Tool-free retrofit fuse monitoring tracks temperature, humidity, vibration, and current to predict fuse life and reduce downtime.
Parallel detection resistors and dual voltage sensing improve fuse blow accuracy while distinguishing fuse faults from measurement switch faults.
Temperature-trend monitoring estimates discharge device aging and failure risk, helping verify safe high-current battery discharge.
Residual current measurement during brief eFuse shutdown enables in-circuit diagnosis of degraded or unsafe fuse states without redundant hardware.
Current and voltage sensing lets an integrated controller assess fuse health and lifespan, enabling warnings before failure in electric-vehicle power distribution.
Sensors track fuse operating data against predetermined ratings to flag mismatches early and prevent premature aging or downtime.
A test circuit uses an inductor and TVS to simulate transient faults on electronic fuses.
A fuse blow detection circuit uses a dynamic feedback latch to differentiate between intact and blown fuses.