HOW FLAMELESS THERMAL AFTERBURNING WORKS
Uniform oxidation within a porous ceramic matrix prevents flame spikes, reduces NOx formation, and ensures stable thermal decomposition conditions.

UPGRADE INSTEAD OF REPLACE
MODERNIZING EXISTING THERMAL INFRASTRUCTURE
Many industrial facilities already have operational exhaust air systems but still rely on outdated combustion technology. promeos®’s flameless combustion systems can be integrated into existing TNV systems with minimal downtime and lower capital expenditure.
TECHNICAL SPECIFICATIONS
Important: The following values are based on a specific customer project and do not represent universal product limits. Your system will be designed during the engineering phase to meet your process requirements.
| Parameter | Value |
|---|---|
| NOx emissions | <20 ppm |
| Type of Combustion | Flame-less ceramic combustion |
| Fuel Flexibility | Natural gas, biogas, hydrogen |
| Noise Level | Quiet operation |
| Temperature Field | Homogeneous temperature distribution |
DESIGNED FOR HIGH-PERFORMANCE INDUSTRIAL PROCESSES
REFERENCE PROJECT
August Gundlach
A 2-MW thermal afterburner integrated into an aluminum coating line with downstream heat recovery.

Integration of VOC Afterburning
Heat Recovery
system
Reduced Gas Consumption
Flame-less Combustion Architecture