How do split oil burners achieve more efficient air-oil matching?

Due to their superior performance, split oil burners are gradually replacing traditional integrated burners and becoming the mainstream choice for medium- and large-scale industrial combustion equipment.

How do split oil burners achieve rapid adaptation and efficient atomization when switching between different fuels, such as heavy oil and diesel?

Split oil burners are a core source of heat energy for high-temperature equipment such as industrial heating, boilers, melting furnaces, and asphalt mixing plants.

How does an integrated gas burner maintain stable combustion in a low-oxygen environment?

The integrated design forms a local high-temperature recirculation zone by reducing the combustion chamber diameter and increasing the burner neck length.

When starting an integrated oil burner in a cold environment, what preheating auxiliary measures should be taken?

In low temperature environments, the paraffin component in the fuel is prone to crystallization and precipitation, causing pipe blockage.

Can integrated gas burners operate stably under both low and high load conditions, adapting to fluctuating heat demands?

The ability of integrated gas burners to operate stably under both low and high load conditions is a key indicator of their advanced performance and wide applicability.

How does a split-type design enable quick removal of the burner head and completely eliminate the problem of cleaning internal carbon deposits?

In the evolution of modern kitchen and industrial heating equipment, the split gas burner, with its unique structural design and superior performance, has redefined efficient, safe, and flexible combustion solutions.