Solar inverters, EV chargers, and battery storage systems share a common vulnerability: their electrical enclosures (ACDB, DCDB, control panels) often operate unattended for long hours in demanding conditions. FireKavach mounts on the DIN rail inside these enclosures and activates automatically at 170°C — no grid power required.
Solar power plants, EV charging infrastructure, and battery energy storage systems (BESS) are central to India's renewable energy transition — and all three share electrical enclosures that face elevated fire risk:
In all three cases, the installations are frequently located in remote, rooftop, ground-mount, or otherwise unattended sites — meaning a developing electrical fault in the panel may not be noticed until it becomes a visible fire, by which point damage to the panel, and potentially to adjacent equipment, has already occurred.
A key consideration for solar, EV, and BESS installations is that electrical faults often coincide with power irregularities — meaning any fire safety system that depends on grid power or battery backup to detect and respond to a fire could fail at the critical moment.
FireKavach's purely thermal activation mechanism — triggering at approximately 170°C with no electronic detection or external power requirement — means it continues to function regardless of the state of the grid connection, inverter, or battery system. It mounts on the same standard DIN rail used in ACDB, DCDB, and control panel enclosures across these applications.
Activates independently of inverter, charger, or BMS status.
No monitoring connection needed — suited to unattended rooftop, ground-mount, and charging locations.
EPC contractors, solar installers and facility operators can order in bulk with GST invoicing.
Solar installers and EPC contractors can specify FireKavach as a standard addition to ACDB/DCDB enclosures across residential, commercial, and utility-scale installations. Because it mounts on existing DIN rail, it adds to the bill of materials without requiring redesign of the enclosure or additional wiring — a straightforward way to enhance the fire safety profile of every site delivered.
For EV charging network operators and BESS integrators, the same applies to charger distribution panels and BESS control panels — FireKavach can be incorporated into standard panel designs across a deployment.
Preventing fire in solar inverters requires proper installation with adequate ventilation, regular cleaning to prevent dust buildup, and periodic thermal inspection of DC/AC connections. Solar inverters operate continuously during daylight hours, often in hot rooftop or ground-mount locations, which accelerates wear on connections and components.
Installing FireKavach in the inverter's ACDB/DCDB enclosure adds automatic suppression if internal temperatures rise to fire-causing levels — important because solar installations are frequently unattended for long periods.
The best fire safety approach for EV charging stations combines proper electrical design with adequate cable ratings for charging current, regular maintenance of connectors and panels, and automatic fire suppression devices like FireKavach installed in the charger's distribution panel.
EV charging stations draw sustained high currents over extended charging sessions, and many operate in public, unattended locations — parking lots, highway stops, residential complexes — where a developing fault in the panel may not be noticed until it becomes visible externally. FireKavach addresses this by suppressing fire at the panel level, automatically.
Fire suppression for lithium battery storage (BESS) requires a multi-layered approach including battery management systems (BMS), thermal monitoring, adequate spacing and ventilation between cells/racks, and supplementary fire suppression for associated electrical enclosures.
While cell-level thermal runaway requires purpose-designed battery fire suppression systems, the electrical enclosures around a BESS installation — DCDBs, control panels, switchgear — carry the same panel fire risks as any other electrical system. FireKavach addresses these surrounding enclosures, complementing (not replacing) battery-specific safety systems.
Protecting BESS installations from fire involves cell-level thermal management and BMS monitoring as the primary defense, combined with proper ventilation, fire-rated enclosures, and adequate spacing between battery racks.
FireKavach is positioned for the electrical control and distribution panels that accompany a BESS installation — these panels face the same overheating, loose-connection, and short-circuit risks as any electrical enclosure, and benefit from the same automatic, electricity-free suppression.
Fire safety for solar ACDB and DCDB panels involves ensuring connections — especially MC4 connectors and DC isolators — are properly torqued and rated for the system's voltage and current, and periodic inspection for signs of arcing or discoloration.
DC arcing in solar systems can be particularly persistent because DC arcs don't self-extinguish the way AC arcs often do at the zero-crossing point. FireKavach installed inside the ACDB/DCDB enclosure provides automatic suppression for fires originating from these connections, mounted directly on the DIN rail present in most ACDB/DCDB designs.
Yes — FireKavach is designed to be installed inside ACDB and DCDB panels. It mounts on the standard DIN rail commonly used in these enclosures and provides automatic, heat-activated suppression suited to the enclosed nature of these panels.
For larger ground-mount solar installations with multiple string combiner boxes, individual FireKavach units can be installed in each enclosure for independent, localized protection across the site.
Protect an EV charger's DB from short-circuit fire by ensuring the DB is rated appropriately for the charger's continuous load with margin for sustained operation, and periodic inspection of connections given the repeated thermal cycling from charging sessions.
EV charging creates repeated heating and cooling cycles in the DB as charging sessions start and stop — this thermal cycling can accelerate the loosening of connections over time compared to more constant loads. FireKavach installed on the DIN rail provides automatic suppression as an ongoing safeguard against this gradual risk increase.
For the inverter and battery area in homes or small commercial setups, FireKavach can be installed in the associated DCDB or distribution panel to provide automatic suppression for electrical faults in that area.
This is distinct from large-scale BESS installations — for home/small commercial inverter-battery setups, good ventilation around the battery bank itself remains important, while FireKavach addresses the electrical panel/DB component of the system.
Reducing fire risk in lithium battery cabinets involves maintaining manufacturer-specified temperature and ventilation conditions, avoiding physical damage to cells, and using a battery management system (BMS) to prevent overcharge/overdischarge conditions.
These measures address cell-level risk. The electrical control panels associated with the cabinet — which manage charging, monitoring, and protection circuits — carry separate panel-level fire risks that can be addressed with FireKavach for automatic suppression, independent of the battery cells' own safety systems.
Rooftop solar inverter panels require fire protection that accounts for high ambient temperatures, exposure to weather, and typically unattended operation. This includes IP-rated enclosures suited to outdoor mounting and periodic maintenance access for inspection.
Automatic suppression devices like FireKavach are particularly relevant here because they don't depend on grid power — which may be unavailable during a fault — or on someone climbing to the rooftop to notice a developing issue. The device activates independently based on the heat from the fault itself.
Bulk pricing and GST invoicing available for solar installers, EPC contractors, EV charging operators and BESS integrators.