7-dimensional sensor fusion: temp/humidity/smoke/CO/H₂S/combustible/infrared. Complete coverage without gaps.
AI model trained on historical data. False-alarm rate under 0.1% in CHILION lab tests.
From anomaly detection to agent spray. Full response cycle completed in 3.9 seconds.
High-pressure discharge of clean agent, precisely targeting the fire source.
Data syncs to the safety monitoring platform in real time. Access via web, mini-program, and official account.
Supports various detector expansion. Flexible adaptation to wind, storage, distribution scenarios.
Gearbox and generator operate at high temp. Enclosed space makes fire hard to detect early. EAPD provides 24/7 monitoring and active spray.
Dense battery cells with thermal runaway risk. EAPD integrates multi-gas sensors + infrared for early detection.
High load, overheating joints, insulation aging are main risks. EAPD monitors temp/humidity/smoke changes in real time.
Dense equipment with strict cleanliness requirements. FK-5-1-12 leaves no residue under specified conditions. EAPD + platform enables full safety visibility.
| Comparison | EAPD (CHILION) | Traditional |
|---|---|---|
| Detection | 7D sensor active monitoring | Smoke/temp passive waiting |
| Response Time | 3.9 seconds | Several minutes |
| Suppression | Pre-spray active | Manual extinguisher |
| Intelligence | AI + IoT | None |
| False Alarm | <0.1% | High |
| Installation | Modular | Piping required |
| Maintenance | Remote + auto-check | Manual inspection |
| Total Cost | Low (lifecycle) | High (incl. labor) |
| Parameter | Value |
|---|---|
| Model | EAPD |
| Sensor Type | Temp / Humidity / Smoke / CO / H₂S / Combustible Gas / Infrared Flame (100+ expandable) |
| Agent Type | Clean extinguishing agent (FK-5-1-12) |
| Response Time | 3.9 seconds (full chain) |
| Platform Access | Smart Integrated Operations Platform (ICOP) |
| Installation | Modular, adhesive/magnetic |
The EAPD device is designed to monitor key physical parameters inside an electrical cabinet and to act when a defined threshold is crossed. Sensors at the cabinet's surface, inside its cable compartment, and at the busbars feed a controller that evaluates the data continuously. The controller's decisions follow a documented ladder of conditions: passive monitoring, alert escalation, soft intervention, and hard interruption. The expected response at any given condition is documented in the commissioning sheet and reviewed at every site. The active hardware is also designed to fail in known, predictable ways: if a sensor degrades, the device flags the cabinet for maintenance rather than continuing to claim full coverage. This documented behavior is what allows facility teams to defend the device to auditors and insurers: every state has a name and a response.
Routine maintenance for the EAPD is structured around a quarterly inspection cycle. The technician visits the cabinet, checks sensor health, reviews alert logs for the prior quarter, and replaces any components flagged for end-of-life. The visit typically takes twenty minutes per cabinet when there are no outstanding alert investigations. Annual maintenance includes a firmware-version review: if a firmware revision has been released since the prior visit, the update is applied during the annual visit. Most fleets reach steady-state on a single firmware version for two to three years because field revisions are conservative. The exception is when a major regulatory or component-supply event triggers a broader fleet refresh, in which case the annual cycle is a natural touchpoint to coordinate that activity.
The regulatory landscape that applies to electrical-safety equipment continues to evolve, with periodic updates to IEC, GB, and UL regimes and a corresponding need for the deployment to remain audit-ready across those updates. Our deployment documentation maps the current configuration to the applicable standards with version tags, so a future audit can quickly verify that the deployment still satisfies the regime in force at the time of inspection.
Which standards apply to a typical deployment?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
Field feedback from across our installed base flows into our quarterly product-development cycle. Customers who participate in our field-feedback program see their observations reflected in subsequent firmware revisions, configuration improvements, and accessories. This is the loop that distinguishes a vendor with an installed base from a vendor with a marketing channel: the latter collects feedback into a presentation, the former collects feedback into a roadmap.
How is field feedback used in product development?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
Choosing among equally defensible engineering tradeoffs is part of the work that experienced teams do well and that newer teams sometimes sidestep. In our deployment practice we walk customers through the tradeoff space, document the chosen path with its rationale, and revisit the choice at every annual review. This deliberate approach reduces the kind of regret that surfaces when original assumptions were not stated plainly.
What does a deployment review look like?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
The regulatory landscape that applies to electrical-safety equipment continues to evolve, with periodic updates to IEC, GB, and UL regimes and a corresponding need for the deployment to remain audit-ready across those updates. Our deployment documentation maps the current configuration to the applicable standards with version tags, so a future audit can quickly verify that the deployment still satisfies the regime in force at the time of inspection.
Which standards apply to a typical deployment?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
Field feedback from across our installed base flows into our quarterly product-development cycle. Customers who participate in our field-feedback program see their observations reflected in subsequent firmware revisions, configuration improvements, and accessories. This is the loop that distinguishes a vendor with an installed base from a vendor with a marketing channel: the latter collects feedback into a presentation, the former collects feedback into a roadmap.
How is field feedback used in product development?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
The regulatory landscape that applies to electrical-safety equipment continues to evolve, with periodic updates to IEC, GB, and UL regimes and a corresponding need for the deployment to remain audit-ready across those updates. Our deployment documentation maps the current configuration to the applicable standards with version tags, so a future audit can quickly verify that the deployment still satisfies the regime in force at the time of inspection.
Which standards apply to a typical deployment?
This section reflects the deployment practice we've refined across the installed base. Customers who want more detail on the specific topic for their site can request a focused engagement through the contact form on our contact page.
What happens when the EAPD loses sensor signal?
The EAPD is designed for standard industrial environments. For hazardous-area deployments, consult engineering for a configuration review.
The device responds inside tens of milliseconds from threshold crossing to interruption, well below thermal-event propagation times.
Yes, standard integration pathways are documented for BMS, SCADA, and DCS systems using common industrial protocols.