Low-NOx and Blue Flame Detection
Evaluate UV detection options for low-emission burners, blue flame combustion, hydrogen blends, and clean-fuel burner upgrades.
Engineering Review Points
For Low-NOx, hydrogen-blend, and blue-flame burners, review flame luminosity, UV signal level, burner turndown, fuel blend, detector sightline, background radiation, response threshold, and controller interface under all operating states.
Recommended Selection Process
| Step | Engineering decision | Output |
|---|---|---|
| 1. Define conditions | Fuel type, flame visibility, operating temperature, viewing path, and environmental load. | Application baseline |
| 2. Match detector type | Evaluate spectral response and sensitivity under low-emission flame conditions, then compare the KLC1000 with other integrated or UV tube options through application testing. | Shortlist of product options |
| 3. Confirm integration | Signal logic, response time, wiring, mounting, BMS interface, and safety expectations. | Sampling or quotation direction |
Related Technical Pages
Use these pages to compare product families and prepare a more complete technical request.
Low-NOx flame detection FAQ
What affects Low-NOx flame detection performance most?
Fuel blend, burner turndown, weak blue-flame signal, detector sightline, spectral response, threshold settings, response time, and controller compatibility are the most important factors.
Can Sartec Photoelectronics help choose a detector?
Yes. Sartec Photoelectronics can review the application, current model, installation environment, and replacement target before recommending product options.
Is model number matching enough?
No. Model number matching is useful, but engineers should also confirm mechanical fit, electrical interface, optical response, and system safety requirements.