We are updating the site. You can see all our products here.
the best industrial burner, boiler burner and furnace burner in the world

It goes without saying that in this progressive world where we live, environmental challenges such as climate change, global warming, greenhouse gas emissions, and air quality issues have increased the demand to improve the combustion process. From long ago since today, Nitrogen and carbon oxides in combustion products of fossil fuels enter the atmosphere, causing smog, acid rain, global warming, and ozone layer destruction.

Extensive innovations are underway to develop zero carbon technologies with applications in the energy, heat, industries, and transportation sectors. Furthermore, the combustion industries are expanding using Low NOx and Ultra Low NOx technologies. The main parameters related to NOx formation reactions include combustion temperature, oxidant concentration, and the duration of its presence in the high-temperature combustion zone. Any changes in these parameters lead to a decrease or increase in NOX formation.

However, the combustion temperature is reduced through geometry optimization, exhaust gas recirculation, and water or steam injection. Therefore, clean combustion can be achieved by using Low NOx burners, alternative fuels such as hydrogen fuel, biomass, and various types of renewable energy on the one hand, and carbon capturing in combustion processes on the other. Changing the supply of energy from fossil fuel sources to clean renewable energies still has limitations due to access to advanced technologies, reliability, and cost; therefore, developing new techniques to achieve «clean combustion» of fuels is still not possible. Fossil is appreciated.

Today, the manufacturers of industrial burners have turned to modifying existing systems and developing new techniques in production burners by applying strict regulations according to global standards to reduce the emissions caused by combustion. New techniques have been presented with the aim of flame type variability, burner design, and fuel and oxidizer mixing flexibility. Combustion and propagation of various types of flames are presented, including non-premixed, premixed, flameless combustion, CDC colorless distributed combustion, MILD combustion, and oxyfuel burners. Also, hydrogen-enriched combustion and fuel variability technique is another technology presented.

Power (kW)